South Africa Living Lab

Rural living lab

South Africa Living Lab – Edem Foli

Living lab description

This living lab in Alicedale, Eastern Cape, strongly focuses on renewable energy and creating entrepreneurship opportunities. The Solar hub comprises solar panels to provide renewable energy, internet access and electric vehicles suited for rural conditions to provide local transportation.

The installation is designed and implemented to benefit the Alicedale community positively, with a strong focus on renewable energy and creating entrepreneurship opportunities. The installation includes a shipping container converted to serve as a solar hub for the centre, solar panels to provide renewable energy and internet access, and electric vehicles suited for rural conditions to provide local transportation.

 The centre aims to test and validate a containerized off-grid renewable energy system, including second-life electric vehicle batteries for energy storage, hoping that the outcomes and learnings will lead to further replication of these solar hubs across rural Africa.

Living lab activities

The living lab launch took place on 31 October 2023. The uYilo e-Mobility Programme of Nelson Mandela University is the SESA partner in South Africa, facilitating the Alicedale living lab in close coordination with GREEN Solar Academy, a local venture selected as part of the first SESA Call for Entrepreneurs in 2022.

GREEN Solar Academy was selected for its expertise in solar power training and mission to make renewable energy accessible to all. The groundwork for this project saw a significant contribution from Shamwari Game Reserve and CARE Alicedale. They proved instrumental in successfully identifying the community needs to be addressed by this SESA project.

Description of the problem addressed

The Rwanda Living Lab will address the following challenges pertaining to cookstoves: 

  1. Low efficiency of Cookstoves 
  2. High production cost of cookstoves 
  3. Low scaling rate of cookstoves

 Challenges related to second life EV batteries include: 

  1. Low awareness about battery-as-a service with second-life batteries offering for new customer segments.
  2. Low lifespan of batteries  
  3. Low scale-up of second life EVs batteries for other purposes 

Living Lab objectives

The living lab will validate and evaluate the performance of a containerised off-grid solar energy system. GREEN will develop a build-operate-share business model for a self-sufficient rural solar energy hub and analyse its replication potential. uYilo will develop a business model for micro electric vehicles charged using renewable energy for transporting goods and services.

Technology being tested

1. An off-grid containerised solar energy system is a shipping container converted into a system designed to supply renewable energy that does not rely on the electrical grid. The benefits are that it can supply energy in remote locations and areas where the electrical grid is constrained.

2. Solar photovoltaic (PV) panels are devices developed to convert sunlight into electricity using PV cells.

3. Second-life electric vehicle (EV) batteries are retired EV batteries. When an electric car’s battery reaches below approximately 80% capacity, it is no longer useful for the car. However, the battery still has power and can be repurposed for stationary energy storage. In the off-grid containerised system concept, the surplus solar energy can be stored in second-life EV batteries and subsequently used when energy from the sun is low, for example, at night.

4. Micro-electric vehicles are powered by a battery operating at a typical speed of approximately 25 km/h – 45 km/h.

Number of assets

inverter

3 (Phocos PSW-H-5KW 5000 W 48 V/DC – 230 V/AC )

Second-life battery pack

3 (EVOV Lithium R9 11.2kWh 51.2V 2nd life battery )

solar panels

48 (16.32 kWp PV generator capacity)

info spots

1 (Antenna, router, Raspberry Pi )

container

1 (6m / 20 ft )

Utility micro electric vehicle

1 (Eleksa Imphi H21)

passenger micro electric vehicle

1 (Melex Road Legal Hi-Rise LWB Passenger)

SOUTH AFRICA LIVING LAB OUTCOMES

Empowering Alicedale through sustainable energy & mobility

The demonstration in Alicedale, South Africa, provided a practical and scalable model for implementing renewable energy and micro-mobility solutions in semi-rural communities. The project addressed issues of energy poverty, high emissions, and limited transportation access, offering clean, reliable alternatives.

Achieving Strategic Objectives

SESA’s actions in Alicedale were guided by a clear set of strategic objectives, focusing on comprehensive, community-centered development:

Objective 1: Raising awareness and fostering adoption

SESA actively engaged the Alicedale community to bridge the knowledge gap regarding renewable energy and sustainable transportation. Through awareness campaigns and hands-on demonstrations, the project aimed to inform residents about the environmental and economic benefits of solar PV systems and micro-electric vehicles. This showcased how these solutions could reduce energy costs, decrease emissions, and create new opportunities, inspiring adoption by demonstrating their viability in a semi-rural setting. An infospot was deployed at the living lab to enhance internet services and provide information on deployed technologies.

Objective 2: : Building local capacity

A key focus for SESA was to overcome the existing shortage of local technical expertise. The project initiated targeted capacity-building programs, training community members and technicians on the
operation and maintenance of the solar PV system, battery storage, and electric vehicle charging infrastructure. This effort was crucial for empowering the community to independently manage the installed systems, ensuring their long-term functionality and fostering local ownership.

Objective 3: Deploying scalable solutions

SESA successfully deployed a containerized off-grid solar energy system in Alicedale, featuring 20 kWp PV panels and 30.6 kWh of second-life EV batteries for stationary energy storage. This system also provided charging infrastructure for two micro-electric vehicles. These practical, scalable solutions directly addressed the community’s need for reliable electricity and sustainable transport, reducing reliance on costly and polluting traditional fuels. The integrated approach demonstrated a replicable model for other underserved areas.

Objective 4: Fostering long-term sustainability and partnerships

To ensure the long-term sustainability and scalability of the renewable energy systems, SESA fostered strong partnerships with local authorities and community organizations. The project’s efforts aligned with South Africa’s national goals, such as the Just Energy Transition Investment Plan, advocating for the local implementation of national policies to support renewable energy adoption and enable future replication. Business models integrating Public-Private Partnerships (PPPs) were developed to ensure the affordability and accessibility of transportation services.

Quantifiable Impact in Alicedale

Energy Infrastructure

Energy Infrastructure

  • Total cost of ownership for the off-grid containerized hub over 5 years estimated at €151,592.87.
  • €267.75 in cost savings from PV energy generation recorded between May and Dec. 2024.
  • 3,198.78 kg of CO2, 9.64 kg of NOx, and 3.22 kg of PM emissions avoided by using solar PV.
  • Additional 1,330.84 kg of CO2, 3.24 kg of NOx, and 1.08 kg of PM emissions avoided through the use of second-life EV batteries for stationary storage.

Sustainable Mobility

2 micro-electric vehicles introduced: an Eleksa Imphi H21 cargo e-3 wheeler (approx. €4,015.58) and a Melex Road Legal Hi-Rise LWB passenger e-4 wheeler (approx. €14,433.11).
  • Total cost of ownership for the micro-utility EVs is < 50% lower than comparable ICE vehicles. For ex, the Melex EV’s 5-year TCO is €14,599 compared to a Toyota Quantum’s €46,905, and the Eleksa EV’s TCO is €4,682 compared to a Toyota Etios’s €17,423.
  •  Charging cost savings for these EVs (May 2024 – Dec. 2024) amounted to €20.40 for the Eleksa and €76.15 for the Melex.
  • 905.97 kg of CO2, 2.75 kg of NOx, and 0.92 kg of PM emissions were avoided by the Melex passenger EV. 
  • 242.70 kg of CO2, 0.74 kg of NOx, and 0.25 kg of PM emissions were avoided by the Eleksa cargo EV.

Community Empowerment & Engagement

  • User needs assessments revealed 92% of respondents faced commuting challenges, with 98% traveling outside Alicedale for basic necessities, highlighting the urgent need for local transport solutions.
  • 83% of local businesses expressed openness to sharing the electric 3-wheeler cargo vehicle, indicating strong potential for shared mobility models.
  • 5 individuals received 4-day solar PV training, and 5 individuals received 1-day electric vehicle training, building crucial local technical capacity.