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Género en el sector eléctrico

Gabriel Chuquimia — Fri, 15 May 2026 21:31:24 GMT

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Gabriel Chuquimia — Fri, 15 May 2026 21:00:06 GMT

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Formulario de registro

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Gabriel Chuquimia — Fri, 15 May 2026 20:59:17 GMT

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AMEB

Género en el sector eléctrico

Gabriel Chuquimia — Fri, 15 May 2026 20:56:01 GMT

Impacto del componente

Communications Advisor (m/f/d)

Hector Alfaro — Wed, 13 May 2026 05:02:20 GMT

Managing Solar PV Waste in Nigeria’s Growing Off-Grid Sector

Timilehin Adewale — Tue, 12 May 2026 22:11:29 GMT

Examines the environmental and policy implications of solar photovoltaic waste management in Nigeria’s expanding off-grid energy sector.

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== Introduction ==
The expansion of solar energy systems has increased access to electricity in many underserved areas. However, the growth of solar deployment also raises concerns about the management of end-of-life photovoltaic (PV) components. A report by the International Renewable Energy Agency (IRENA) examines the long-term implications of solar PV waste and the importance of developing appropriate recycling and waste management systems. This article explores the relevance of these issues for Nigeria’s off-grid sector.
== Background ==
Solar PV systems contain components such as:
Glass
Aluminium
Silicon materials
Electrical components
As systems reach the end of their operational life, improper disposal can create environmental and waste management challenges.
The increasing adoption of off-grid solar technologies means that planning for end-of-life management is becoming increasingly important.
== Key Insights ==
=== 1. Growth of Solar PV Waste Volumes ===
As solar deployment expands globally, the volume of retired PV panels is expected to increase significantly over time.
=== 2. Recycling Potential ===
Many materials used in solar panels can be recovered and reused through recycling processes.
=== 3. Importance of Early Planning ===
Developing waste management systems before waste volumes increase can reduce future environmental and operational challenges.
=== 4. Need for Regulatory Frameworks ===
Policies and standards are important for guiding collection, recycling and disposal practices.
=== 5. Opportunities for Circular Economy Approaches ===
Recycling and material recovery can support resource efficiency and create economic opportunities within renewable energy value chains.
== Relevance to Nigeria ==
Nigeria’s off-grid solar market is expanding rapidly, particularly through mini-grids and standalone solar systems. While current waste volumes remain relatively low, future growth in retired equipment is expected.
Addressing solar PV waste management can help:
Reduce environmental risks
Improve sustainability of renewable energy deployment
Support responsible lifecycle management practices
Encourage development of recycling capacity
== Implementation Considerations ==
Developing effective waste management systems may require:
National guidelines for solar equipment disposal
Support for recycling and material recovery initiatives
Public awareness on end-of-life management
Integration of lifecycle considerations into energy planning
Collaboration between government agencies, private sector actors and development partners is important.
== Strategic Implications ==
Managing solar PV waste is an important component of long-term renewable energy sustainability. Integrating lifecycle management into off-grid energy planning can strengthen environmental performance and support more resilient energy systems.
For Nigeria, proactive planning can help ensure that the growth of the solar sector remains environmentally sustainable over time.
== Further Reading ==
International Renewable Energy Agency (IRENA). [https://www.irena.org/-/media/Files/IRENA/Agency/Publication/2016/IRENA_IEAPVPS_End-of-Life_Solar_PV_Panels_2016.pdf End-of-Life Management: Solar Photovoltaic Panels]
== Attribution and Licence ==
This article summarises material from a publicly available IRENA report on solar photovoltaic lifecycle management.
== Categories ==
[[Category:Nigeria Off-Grid Solar Knowledge Hub]]
[[Category:Renewable Energy]]
[[Category:Electricity]]

Solar-Powered Cooling and Cold Chain Development in Rural Nigeria

Timilehin Adewale — Tue, 12 May 2026 22:09:42 GMT

Explores the role of solar-powered cooling systems in reducing post-harvest losses and strengthening agricultural value chains in rural Nigeria.

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== Introduction ==
Reliable cooling systems are important for preserving agricultural products, improving food security and supporting rural livelihoods. The International Finance Corporation (IFC) highlights that sustainable cooling solutions can strengthen agricultural value chains and reduce post-harvest losses in developing economies. This article examines the role of solar-powered cooling systems and their relevance to rural Nigeria.
== Background ==
Many rural communities face limited access to reliable electricity, making conventional refrigeration systems difficult to operate. As a result, agricultural products such as fruits, vegetables, fish and dairy products are often lost before reaching markets.
Solar-powered cooling technologies provide an alternative approach for supporting cold storage in off-grid and underserved areas.
== Key Insights ==
=== 1. Reduction of Post-Harvest Losses ===
Cold storage systems help preserve perishable products, reducing spoilage and improving product quality.
=== 2. Improved Market Access ===
Longer storage periods enable producers to access wider markets and reduce pressure to sell products immediately after harvest.
=== 3. Income Stabilisation ===
By reducing losses and improving product quality, cooling systems can support more stable incomes for farmers and small businesses.
=== 4. Reduced Dependence on Diesel Systems ===
Solar-powered systems can reduce operating costs and dependence on diesel generators for refrigeration.
=== 5. Support for Rural Enterprises ===
Cooling infrastructure can support fisheries, dairy production, food processing and agricultural aggregation centres.
== Relevance to Nigeria ==
Nigeria experiences significant post-harvest losses across agricultural value chains due to limited cold storage infrastructure. Rural and off-grid communities are particularly affected.
Integrating solar-powered cooling solutions can:
Improve food preservation
Enhance rural market participation
Support local economic activities
Reduce operational energy costs
== Implementation Considerations ==
Successful deployment requires:
Access to financing for cooling infrastructure
Technical support and maintenance capacity
Integration with local agricultural systems
Reliable business models for cold storage operations
Training and community engagement are also important for long-term sustainability.
== Strategic Implications ==
Cold chain development is increasingly recognised as an important component of rural development and agricultural modernisation. Combining renewable energy systems with cooling technologies can strengthen the economic impact of electrification programmes.
For Nigeria, solar-powered cooling systems offer opportunities to improve agricultural resilience and strengthen rural value chains.
== Further Reading ==
International Finance Corporation (IFC). [https://www.ifc.org/en/what-we-do/programs-projects/sustainable-cooling Sustainable Cooling Initiative]
== Attribution and Licence ==
This article summarises material from publicly available IFC resources on sustainable cooling and cold chain development.
== Categories ==
[[Category:Nigeria Off-Grid Solar Knowledge Hub]]
[[Category:Energy Access]]
[[Category:Renewable Energy]]

Tariff Design Considerations for Nigeria’s Mini-Grid Sector

Timilehin Adewale — Tue, 12 May 2026 22:02:44 GMT

Examines key considerations in mini-grid tariff design, including affordability, cost recovery and financial sustainability in rural electrification systems.

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== Introduction ==
Tariff design plays an important role in determining the financial sustainability and affordability of mini-grid systems. A technical report published by the National Renewable Energy Laboratory (NREL) examines approaches to tariff design for decentralised energy systems, highlighting the balance between cost recovery and consumer affordability. This article summarises key considerations relevant to Nigeria’s mini-grid sector.
== Background ==
Mini-grid operators require sufficient revenue to cover:
Capital recovery
Operation and maintenance costs
Equipment replacement
Administrative expenses
At the same time, tariffs must remain affordable for users in rural and underserved communities.
Designing effective tariffs therefore involves balancing technical, economic and social considerations.
== Key Tariff Design Considerations ==
=== 1. Cost Recovery ===
Tariffs should reflect the actual cost of generating and distributing electricity to ensure the long-term viability of mini-grid operations.
=== 2. Affordability for Users ===
High tariffs may discourage electricity consumption or limit access for low-income households and businesses.
=== 3. Demand Profiles ===
Electricity demand patterns influence tariff structures. Productive users often consume electricity differently from residential users.
=== 4. Transparent Pricing Structures ===
Clear and understandable pricing systems improve consumer trust and reduce disputes related to billing.
=== 5. Flexibility and Adaptation ===
Tariff structures may need periodic adjustments based on changes in demand, fuel costs, technology prices or system expansion.
== Common Tariff Approaches ==
=== Flat Tariffs ===
Users pay a fixed rate regardless of consumption levels. This approach is simple but may not reflect actual usage patterns.
=== Consumption-Based Tariffs ===
Charges are linked to the amount of electricity consumed, encouraging efficient energy use.
=== Tiered Tariffs ===
Different rates apply at different consumption levels, allowing basic energy needs to remain affordable while higher usage attracts increased charges.
== Relevance to Nigeria ==
Nigeria’s mini-grid sector operates in diverse economic and geographic contexts. Tariff design affects:
Financial sustainability of operators
Consumer willingness to connect
Productive use of electricity
Investor confidence in the sector
Balancing affordability with sustainability remains a key regulatory and operational challenge.
== Implementation Considerations ==
Improving tariff systems may involve:
Data-driven demand assessments
Stakeholder engagement with communities
Regulatory guidance on tariff methodologies
Integration of productive-use demand into financial planning
Transparent communication with users is also essential.
== Strategic Implications ==
Effective tariff design supports the long-term sustainability of decentralised energy systems. Poorly designed tariffs can undermine both financial performance and consumer access.
For Nigeria, strengthening tariff methodologies can improve mini-grid performance and support broader rural electrification objectives.
== Further Reading ==
National Renewable Energy Laboratory (NREL). [https://www.nrel.gov/docs/fy20osti/75283.pdf Designing Tariffs for Mini-Grids]
== Attribution and Licence ==
This article summarises material from a publicly available technical report produced by the National Renewable Energy Laboratory (NREL).
== Categories ==
[[Category:Nigeria Off-Grid Solar Knowledge Hub]]
[[Category:Energy Access]]
[[Category:Electricity]]

Gender Dynamics in Productive Use of Electricity in Rural Nigeria

Timilehin Adewale — Tue, 12 May 2026 21:44:11 GMT

Examines how gender-related factors influence the productive use of electricity and the distribution of economic benefits in rural electrification programmes.

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== Introduction ==
Access to electricity can support income generation and economic participation in rural communities, but the benefits are not always distributed equally. Research published in Energy Research & Social Science examines the relationship between gender, energy access and productive use, highlighting the structural barriers that influence how women and men benefit from electrification. This article explores key findings from the literature and their relevance to rural Nigeria.
== Background ==
Productive use of electricity refers to the use of energy for activities that generate income or improve livelihoods. Examples include:
Agro-processing
Refrigeration and cold storage
Small-scale manufacturing
Retail and service enterprises
While electrification can create economic opportunities, gender-related constraints may affect access to finance, equipment, training and market participation.
== Key Findings from the Literature ==
=== 1. Unequal Access to Productive Assets ===
Women in many rural communities face limited access to productive equipment and financial resources needed to utilise electricity for business activities.
=== 2. Time and Labour Constraints ===
Household responsibilities can reduce the time available for women to engage in income-generating activities, even when electricity is available.
=== 3. Importance of Targeted Financing ===
Access to affordable financing is identified as a critical factor in enabling women-led enterprises to adopt electrical equipment and expand operations.
=== 4. Skills and Training Gaps ===
Technical and business training programmes influence the ability of users to translate energy access into productive outcomes.
=== 5. Social and Institutional Factors ===
Cultural norms and institutional structures can affect participation in productive use activities and decision-making processes related to energy use.
== Relevance to Nigeria ==
In Nigeria, rural electrification programmes increasingly recognise the importance of productive use of energy. However, gender disparities remain a challenge in many communities.
Addressing these barriers can:
Improve participation in local economic activities
Increase household income opportunities
Strengthen the developmental impact of electrification programmes
== Implementation Considerations ==
Supporting inclusive productive use of electricity may require:
Gender-responsive financing mechanisms
Capacity-building and technical training programmes
Inclusion of women in energy planning processes
Support for women-led enterprises and cooperatives
Integrating these considerations into rural electrification planning can improve overall programme outcomes.
== Strategic Implications ==
Understanding gender dynamics is important for ensuring that electrification contributes to broad-based rural development. Productive use initiatives that consider social and economic barriers are more likely to generate sustainable and inclusive benefits.
For Nigeria, incorporating gender-responsive approaches into energy access programmes can strengthen the long-term impact of off-grid electrification.
== Further Reading ==
Energy Research & Social Science. [https://www.sciencedirect.com/science/article/pii/S2214629618306145 Linking Energy Access, Gender and Poverty: A Review of the Literature on Productive Uses of Energy]
== Attribution and Licence ==
This article summarises findings from a peer-reviewed open-access publication available through ScienceDirect.
== Categories ==
[[Category:Nigeria Off-Grid Solar Knowledge Hub]]
[[Category:Energy Access]]
[[Category:Electricity]]

Event - Asia Clean Energy Forum 2026

Hector Alfaro — Mon, 11 May 2026 10:45:26 GMT

Created page with "{{Events |Event title=Asia Clean Energy Forum 2026 |Event Organizer=ADB |Event Type=Forum & Symposium |Focus=Other, Renewable Energy |Beginning=2026/06/08 |End=2026/06/11 |Cou..."

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{{Events
|Event title=Asia Clean Energy Forum 2026
|Event Organizer=ADB
|Event Type=Forum & Symposium
|Focus=Other, Renewable Energy
|Beginning=2026/06/08
|End=2026/06/11
|Country=Philippines
|Location=ADB Headquarters, Manila
|URL=https://asiacleanenergyforum.adb.org/
|Event description=The Asia Clean Energy Forum (ACEF) 2026 marks a significant milestone as we celebrate the Asian Development Bank's 60th anniversary while addressing the most pressing challenges in clean energy transition.

ACEF 2026 signifies a crucial milestone in the institution’s energy engagement in Asia and the Pacific. The forum reflects ADB’s updated Energy Policy in 2025 and responds to the region’s growing demand for clean energy solutions that are secure, resilient, and inclusive. It takes place against a backdrop of economic uncertainty in Asia and the Pacific, with regional growth projected to slow to 4.0% in 2026. At the same time, persistent energy access gaps continue to affect more than 400 million people, while rising geopolitical and trade tensions add further pressure on economies across the region.

ACEF serves as a regional platform for collaboration, knowledge exchange, and the promotion of practical clean energy solutions that go beyond conventional transition models. The forum will bring together a diverse range of stakeholders including governments, private sector actors, academia, financial institutions, NGOs, and development partners to collectively address the region's pressing energy challenges and emerging opportunities.

ACEF 2026 will focus on advancing four essential areas: (i) building energy security through diversified, reliable clean energy sources; (ii) developing resilient systems that can withstand disruptions; (iii) promoting inclusion through equitable access and participation; and (iv) developing intelligent energy systems that use digital technologies, artificial intelligence, and smart grids to improve management efficiency.
}}

Event - Intersolar Europe: The World’s Leading Exhibition for the Solar Industry

Hector Alfaro — Mon, 11 May 2026 10:41:59 GMT

Created page with "{{Events |Event title=Intersolar Europe: The World’s Leading Exhibition for the Solar Industry |Event Organizer=Intersolar Europe |Event Type=Conferences & Exhibitions |Focu..."

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{{Events
|Event title=Intersolar Europe: The World’s Leading Exhibition for the Solar Industry
|Event Organizer=Intersolar Europe
|Event Type=Conferences & Exhibitions
|Focus=Solar, Other
|Beginning=2026/06/22
|Event Time Zone=CEST
|End=2026/06/25
|Event Time Zone2=CEST
|Country=Germany
|Location=Messe München & ICM München
|URL=https://www.intersolar.de/home
|Event description=Exhibition: June 23–25, 2026, Messe München
Conference: June 22–23, 2026, ICM München
}}

Event - Africa Energy Forum 2026

Hector Alfaro — Mon, 11 May 2026 10:37:59 GMT

Created page with "{{Events |Event title=Africa Energy Forum 2026 |Event Organizer=The Ministry of Electricity and Energy, South Africa |Event Type=Forum & Symposium |Focus=Other, Renewable Ener..."

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{{Events
|Event title=Africa Energy Forum 2026
|Event Organizer=The Ministry of Electricity and Energy, South Africa
|Event Type=Forum & Symposium
|Focus=Other, Renewable Energy
|Beginning=2026/06/16
|End=2026/06/19
|Country=South Africa
|Location=Cape Town CTICC 1
|URL=https://energy-news-network.com/networking/africa-energy-forum/
|Event description=The continent’s most strategic investor gathering, the Africa Energy Forum (aef) will return to Cape Town from 16–19 June 2026, with a theme focused on pragmatic, diversified energy solutions to support industrialisation. The Africa Energy Forum (aef) 2026, under Building Africa’s Industrialised Future, reflects the need to power growth for more than 1.5 billion people.

aef 2026 connects energy, critical minerals, infrastructure, finance and technology – driving the shift from ambition to execution and from resources to value creation, as Africa takes a central role in global supply chains and long-term investment.

Building Africa’s Industrialised Future starts here.
}}

Publication - 24/7 Renewables: The Economics of Firm Solar and Wind

Hector Alfaro — Mon, 11 May 2026 10:34:38 GMT

Created page with "{{Pub Database |Pub Title=24/7 Renewables: The Economics of Firm Solar and Wind |Pub Organization=IRENA |Pub Author=IRENA |Pub Month=May |Pub Year=2026 |Pub Abstract=Solar and..."

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{{Pub Database
|Pub Title=24/7 Renewables: The Economics of Firm Solar and Wind
|Pub Organization=IRENA
|Pub Author=IRENA
|Pub Month=May
|Pub Year=2026
|Pub Abstract=Solar and wind have become the cheapest sources of new electricity generation worldwide. As renewable penetration rises, however, the central challenge of the energy transition is increasingly one of adequacy and flexibility – ensuring that clean electricity is available when and where it is needed. This report addresses that challenge by introducing firm levelised cost of electricity (firm LCOE) – a transparent, project-level benchmark for assessing the cost of delivering continuous, reliable electricity from co-located solar PV, onshore wind and battery energy storage systems.

The analysis shows that the cost of firm renewable electricity has declined rapidly across all major technologies and markets. In high-quality solar and wind resource regions, co-located hybrid systems can already deliver round-the-clock electricity at costs competitive with - and in many cases below - those of new fossil-fuel generation. China currently defines the global cost floor, while costs in Brazil, India, South Africa, Australia, and the Gulf region are declining rapidly towards fossil-fuel cost parity.

The report identifies key drivers of firm renewable costs – technology performance, resource quality and system configuration – and examines the policy levers that are proving decisive in translating cost competitiveness into deployment at scale. It concludes that the technologies are maturing, the costs are falling and the commercial demand is growing. The pace at which firm renewable electricity is deployed will be among the most consequential determinants of the global energy transition in the decade ahead.
|Pub Download=https://www.irena.org/Publications/2026/May/24-7-renewables-The-economics-of-firm-solar-and-wind
|Pub Newsletter=No
|GBE filter=No
|Pub PIE=No
|Pub Tag Energy Transition=Energy Transition
|Pub Tag Renewable=Renewable Energy
|Pub Tag Solar=Solar
|Pub Tag Wind=Wind
|Pub Tag Other=Other
}}

Event - Negative Emissions Summit 2026

Hector Alfaro — Mon, 11 May 2026 10:32:33 GMT

Created page with "{{Events |Event title=Negative Emissions Summit 2026 |Event Organizer=Negative Emissions Platform |Event Type=Summit |Focus=Other, Climate Change |Beginning=2026/06/04 |Beginn..."

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{{Events
|Event title=Negative Emissions Summit 2026
|Event Organizer=Negative Emissions Platform
|Event Type=Summit
|Focus=Other, Climate Change
|Beginning=2026/06/04
|Beginning time=08:30AM
|Event Time Zone=CES
|End=2026/06/04
|End time=18:30PM
|Event Time Zone2=CEST
|Country=Belgium
|Location=MIX Brussels
|URL=https://www.negative-emissions.org/negative-emissions-summit-2026The world’s largest carbon removals policy summit returns to Brussels
|Event description=Europe is entering the decade where durable, high-integrity carbon removals move from “promising” to “system-critical”. The Negative Emissions Summit 2026 convenes policymakers, industry leaders, investors, and CDR providers to focus on one central question:

How do we create credible, scalable demand for permanent carbon removals, fast enough to strengthen EU competitiveness, enable investment, and deliver climate outcomes?

This year’s Summit is built around the mechanisms that can unlock durable demand at scale, especially compliance-driven routes (including the EU ETS) and near-term public purchasing and support schemes that help Europe ramp up capacity before full compliance integration.
}}

User:Ankit Kumar2

Hector Alfaro — Mon, 11 May 2026 08:17:59 GMT