Fusion Grid delivers business innovation for rural electrification

PhD Gonçalo Mendes, Post-Doctoral Researcher, LUT University, School of Energy Systems

In the so-called Age of Information, access to technology and its many wonders remains far from geographically ubiquitous. Globally, more than 800 million people still lack access to a reliable electric connection. Tragically, some 70% of those are in Sub-Sharan Africa (SSA), where the average electricity access rate remains under 50%. For comparison, this figure is approximately 90%, worldwide.

The rural people of SSA face the most struggles. In Namibia, those communities represent about half of the country’s population, the majority of which lives off the grid. Rural Namibians have little purchasing power and often can’t afford a grid connection or the expensive electricity it delivers. Additionally, many live for own sustenance. As a result, they’re largely excluded from the services society and its value-added activities, which hampers socio-economic growth.

How to approach these disenfranchised communities in ways that offer energy innovation while unlocking opportunities for their economic development? This is where Fusion Grid comes in.

Traditional business models for remote community electrification have been largely based on service-oriented approaches, in which one or more third-party entities carry the upfront investments and the O&M costs of the installations, and with it most risks of the project. While these approaches have merit, due to the amounts of capital involved, cost-recovery remains challenging, and some sort of financial aid and/or donations is usually required. The lack of a solid business proposition has been keeping energy investors away, especially in an environment already complex to navigate.

At the same time, there are myriad lessons learned from successful, lower capital, smaller scale projects, such as solar home systems, solar kiosks, and electrified appliance shops, which have become mainstream across SSA. Key factors for the success of these product-based approaches have reportedly been not only microloan financing, but also flexible cost-recovery mechanisms such as pay-as-you go, which adapt customer payments to their timely ability and/or willingness to do so.

Researchers have hypothesized that energy access alone may not guarantee community growth in the highly constrained remote environments of SSA. Thus, long-term socio-economic benefits and prosperity may only be ensured via inclusion of additional high value-added services for rural communities. One such service is connectivity; SSA is the fastest-growing mobile region, globally, and a recent World Bank report found that 240 million mobile phone subscribers in Africa still did not have an electricity connection at home.

Fusion Grid seeks to overturn the low efficacy of established rural electrification approaches by proposing an innovative stacked service business model incorporating revenue streams from different value-added services, starting from a combination of electricity and high-speed connectivity supply.

The Fusion Grid business model has its roots in the Anchor-Business-Community (ABC) model. In the SSA context, due to limited purchasing power and overall uncertainty hampering local development, it is often difficult, if not impossible, for energy providers to finance renewable energy installations exclusively serving residential or small business customers.

A deal with a so called “anchor customer”, with deep pockets and a large, predictable power demand could unlock that funding. This deal makes the project bankable, largely because it establishes the purchase of renewable power from the energy provider in the longer-term (for at least 20 years) and under a fixed tariff. The ABC framework allows then for service expansion to small business customers, who make valuable use of electric power for increasing operational productivity, thus generating more revenues and subsequent growth. The inclusion of rural businesses in the service reinforces the value proposition of the project, as well as its bankability. Lastly, the service is expanded to include residential customers. Homes are served with affordable electricity, even if their ability to contribute to project cost-recovery remains limited.

Fusion Grid enhances the ABC approach, by serving small rural businesses and homes not only with clean electricity, but also with high-speed 4G connectivity (Figure 1). These services will be flexibly priced and flexibly paid, based on willingness-to-pay (WTP) revenue mechanisms, allowing for progressive cost-recovery of the project without compromising socio-economic growth. The WTP of different customers can be derived from current energy expenses, such as those on kerosene for lighting, on candles, and charging devices, but should be further investigated through working directly with the communities.

Figure 1 – Generic representation of the Fusion Grid rural electrification business model.

Community growth is expected to go hand in hand with the emergence of digital services, enabled by Fusion Grid mobile and interactive platforms and tools. As a last step of project cost recovery, percent fees will be charged to transactions linked to digital sales from these services. Such an approach promotes transparency and safeguards community interest, as further project value can only be captured via subsequent development of the local digital economy. In Fusion Grid, business models are perceived as complex structures, explicitly evolving in time. Correspondingly, their ability to deliver new value streams increases with the growth of community prosperity (Figure 2).

Fusion Grid’s business model is unique in that it is geared towards the sustainable growth of targeted communities, and subsequent cost recovery based on newly established digital services.

Figure 2 – Approach for the evolving maturity of business models adopted in Fusion Grid.

Therefore, the Fusion Grid stacked business model approach captures value from three specific revenue streams:

  1. Anchor payments: Predictable, fixed revenue stream, agreed upon a (long-term) power purchase agreement. It reduces project risks and enables bankability of the project. Primary source of value of the project;
  2. Payments from local businesses: WTP-based revenue stream, mainly linked to electricity and power, as well as connectivity services, operating as a secondary (yet relevant) source of value for the project;
  3. Payments from households: Electricity and connectivity are WTP-based revenue streams. The low electricity use together with reduced purchasing power is likely to offer limited cost-recovery value to the project. Revenues from connectivity could be more significant. Additional revenue streams come from digital services enabled by connectivity, which are based on a percent fee charged to sale transactions.

The Fusion Grid project’s aim is to investigate ways to promote sustainable growth in remote, rural communities of SSA through technology and business innovation. The developed Fusion Grid business models are one step in that direction. Furthermore, this conceptual work requires further validation and testing in real-world environments, more specifically with the Oniipa community, in Namibia.

LUT is developing follow-up research to Fusion Grid, in areas such as business model design frameworks and tariffication mechanisms for rural electrification projects.

For more information contact Gonçalo Mendes at goncalo.mendes@lut.fi.

Kahden hankkeen innovaatiomaisema – tunnetta ja tuloksia

FT Suvi Nenonen, Suomen Yliopistokiinteistöt Oy

Koska olet ollut viimeksi kiitollinen siitä, että olet saanut ladattua kännykkäsi? Entä siitä kun verkkoyhteytesi toimii ja saat tehtyä työsi kotoa käsin? Koska olet liikuttunut, kun sinulle on annettu positiivista palautetta – se on tuntunut niin hyvältä, että sinulle tulee kyynel silmään?

Näitä tunteita olemme olleet jakamassa, kun kahden suomalaisen tutkimus- ja kehityshankkeen pilotteihin osallistuvat henkilöt olivat mukana yhdessä kehitettyjen ratkaisujen kokeilussa Namibiassa. Onipan kylässä viiden talon asukkaat saivat käyttöönsä sekä sähkön että netin Fusion Grid-palvelun avulla. Faith Primary koulun opettajat kokeilivat aktiivisen oppimisen menetelmiä uusitussa luokkahuoneessa ja myös Berg-Op Akademin nuoret harjoittelivat väittelytaitoja pihalle tuunatussa oppimisympärsitössä. Molempien koulujen opettajista hankkeeseen osallistuvat opettajat saivat tunnustuksen aktiivisuudestaan uusien opettamisen keinojen kokeilusta ja testauksesta.

Teknologiaa ja vuorovaikusta

Molempia hankkeita voi tarkastella sosioteknisen muutoksen mallin viitekehyksessä, jonka Geels julkaisi 2002. Sosioteknisessä järjestelmässä yhdistyvät teknologian ja ihmisen välinen vuorovaikutus. Fusion Gridin luoma paikallinen energiantuotantojärjestelmä on teknologisesti kompleksinen. Siihen liittynyt vuorovaikutteisuutta oli informoivaa, opettavaa ja reflektoivaa. Pilottitalojen asukkaiden tuli ymmärtää, mitä mahdollisuuksia sähkö ja verkkoyhteys heille antoi ja samalla heidän piti ottaa omistajuus laitteiston käytöstä ja ylläpidosta. Kun pandemia muutti suunnitelmia paikan päällä ohjaamisesta, toteutettiin ohjaus digitaalisen etäohjauksen avulla.  Muutoksen ymmärtäminen näin jälkeen päin tarkasteluna synnytti mieliin  uudenlaisia lähestymistapoja: kulttuurin ymmärtäminen onnistui hankkeissa parhaiten kulttuuria eläen. Vaikka viimeiset matkat paikan päälle täältä Suomesta eivät toteutuneetkaan epidemian vahvistuessa, säilytimme molemmissa hankkeissa kiinteän digitaalisen yhteyden. Kuulumisten vaihtaminen ja huolien jakaminen auttoivat aina, kun asumisen tai oppimisen ympäristöjen muutokset ja niillä saavutetut hyödyt olivat jäämässä pois mielestä ja hautautua totuttuihin toimintatapoihin.

Sosioteknisessä muutoksessa tekninen ja sosiaalinen toimintaympäristö ovat vuorovaikutuksessa keskenään ja muokkaavat toisiaan. Teknologinen siirtymä on sosiaalinen prosessi ja esitellessämme e-oppimista osana aktiivista oppimista tämä korostui entisestään.  Siirtymässä suhtautuminen opettamiseen, oppijaan oli myös rakenteellinen muutos koulupäivän ja oppimisen organisoimisessa.  Kuitenkin huomasimme, että e-oppimiseen liittyen olisi hyvä lähteä liikkeelle siitä, mitä välineitä koulun opettajat ja oppijat jo käyttävät. Ulkoapäin tuodut laitteet eivät tulleet tutuiksi kovin helposti ja tavoiteltu oppiminen jäi käytännön esteiden varjoon: ei ole mutkatonta muistaa laittaa laitteita lataukseen, että ne olisivat käytössä silloin, kun niitä tarvitaan. Tällaisen perusasian tunnistaminen oli meille haasteellista, mutta opettavaista, sitten kun suostuimme sen ymmärtämään.  

Kehittämistä kolmella tasolla

Geels (2002) kuvaa sosioteknisen muutoksen tapahtumista kolmitasoisena. Namibiassa etenimme virastoja ja ministeriöitä lähestyen. Tämä auttoi meitä tunnistamaan makrotasolta katsottuna mesotason, regiimin, toimijoita ja pilottikohteita.  Oniipan kylä ja kaksi edellä mainittua koulua olivat regiimitason entiteettejä, joissa on omat tavat ja säännöt. Kohtasimme pilotointia mahdollistavia, mutta myös haittaavia sääntöjä. Kouluissa mm. johtokunta tunnisti pilotoinnissa paljon hyvää, mutta teknologian mukaan tuominen aiheutti paljon keskustelua. Esimerkiksi riippuvuus teknologiasta huolestutti, samaten verkon tarjoama mahdollisuus vierailla sivuilla, joita yleisesti ei hyväksytty. Mutta haasteista selvittiin yhteisen kehittämisen avulla: kun yhteinen tavoite on selvä, voi mikrotason innovaatioilla hiljalleen liikutella regiimitason rakenteita.   

Monitasomallissa pienet ketterät aloitteet ovat uusia avauksia, jotka vaikuttavat ylempiin meso- ja makrotasoihin, mikäli tähdet ovat oikeassa asennossa. Aktiivinen oppiminen ei ollut pelkästään digitaalista vaan yhteiskehitimme kouluymäpristöön myös aktiivisen oppimisen luokkatiloja, sisälle sekä ulos. Niiden avulla voitiin luoda aktiivisen oppimisen tilanteita, joissa helposti liikuteltavien huonekalujen avulla ympäristö muokkaantui. Koska kalusteet olivat aiempia sutjakampia, toivat ne luokkaan myös lisää tilaa, sillä lapsiryhmät olivat suuria.  Kalusteet näkyvinä artefakteina sekä myös Fusion Grid konsepti tukiasemineen asuintalon uumenissa konkretisoivat uusia mahdollisuuksia.   Fusion Grid konseptin avulla kylään tuotiin mahdollisuus käyttää sähköä ruoanlaittoon ja nettiä töiden hoitamiseen. Arki oli erilaista.

Jokainen muutos on erilainen

Muutos on regiimin toimijoista lähtevää sisäsyntyistä muuttumista, jossa regiimin toimijat muokkaavat regiimin toimintaa ilman ulkoista painetta. Tämän takia pilottikohteiden toimijoiden sitoutuminen yhteiseen projektiin oli ensiarvoisen tärkeää. Toiminta paikan päällä heidän kanssaan oli myös ainut tapa yhdistää uusia ratkaisuja olemassa oleviin puitteisiin. Yhdistämällä vanhoja ja uusia ratkaisuja innovaatiot saattavat johtaa myös laajempiin muutoksiin.

Laajemmat muutokset voivat puolestaan aiheuttaa muutoksia käyttäjätottumuksissa ja luoda näin tilaa uusille innovaatioille.  Muutos syntyy, kun regiimin toimijat eivät enää usko nykyisen järjestelmän tulevaisuuteen vaan näkevät edessä uutta. Kulttuurin voima ja vahvuus eteenpäin vieväksi voimaksi on tärkeä tunnistaa. Sen tavoittaa vuoropuhelusta silmästä silmään, samalla tasolla ja aina välillä, yhteiseen tavoitteeseen ja visioon katsomalla.  Meillä Suomessa tulevaisuus nähdään monesti edessäpäin, lineaarista polkua edeten saavutettavana. Koimme kaikki kulttuuria, jossa aika ei välttämättä etene lineaarisesti vaan syklisesti virraten. On tarkennettava katsetta, jotta tulevaisuuteen eteneminen lähtee kohti oikeaa suuntaa. Syklisen ajan sylissä uudet ideat, tavat ja tottumukset kehittyvät kuin suuressa sylissä. Nämä hankkeet, jotka nyt ovat loppumassa ovat pitäneet meitä sylissään. Yhteinen oppiminen on ollut suuri ilo.

Lähde:

Geels, F.W. (2002). Understanding the Dynamics of Technological Transitions, A  co-evolutionary and socio-technical analysis, PhD thesis, Enschede: Twente University Press

Suvi Nenonen on ollut Suomen Yliopistokiinteistöt Oy:n yhteyshenkilö IN-Learn -hankkeessa, joka eteni rinnakkain Fusion Grid -hankkeen kanssa. Molemmat hankkeet panostivat kehitystoimintansa Namibiaan. In-Learn hankkeessa kehitettiin oppimisympäristöjä. Kehitysprosessin kuvaus löytyy täältä https://issuu.com/polarpartners/docs/active_learning_handbook_issuu

“Omapundulo ko Fusion Grid Pilot Project, na unene tuu ongeshefa ompe, okuziilila megumbo pethimbo lyoo ndjindikila dha Covid-19”

Mr. Fillemon Tulimekondjo Amupolo and Mrs. Frieda Amoomo

Production of a cabinet with electrical tools during the Covid-19 lockdown era. Clean electricity is provided by the solar panels manufactured and contributed by Solar Finland.

Omapundulo ko Fusion Grid Pilot Project

Otwemupandula aasimanekwa kolusheno mwelutupe aaholike paife tse nomukulukadhi gwandje ohatulongele pegumbo oosikopa uutafula niikwawo oyindji omolwa epato lyo covid 19 nenyanyu enene otwakutapo nokuli aaniilonga yaali mbahetukwathele tse tatuyape okashonanima ngele twalanditha.

O wi-fi malwa manene ihe shaashi oyohandilongidha oku marketing iilongomwa yetu ishewe naashiinda oyeyiwatelwa.

Kakele otuna ngaa uukundi wehala lyokulongela oosiikopa shaashi ohatulongele owala moseti mo omotuumuna aanegumbo, nookastoma nadho wo otadhishongola omolwa ekanitho lyiilonga omolwa o covid 19 otwemupandula shili Kalunga nemuyambeke. Iilongomwa yetu ngele yapu ohandi kahehela ngaa osheenditho ndifale kookaskoma nenge kondunda yomalandithilo.


A cabinet produced by Mr. Fillemon Amupolo and Mrs. Frieda Amoomo with the electricity in their house. The products are marketed via social media using the shared WIFI that provides connection to the Internet.

Appreciation message for Fusion Grid Pilot Project

Translation provided by Dr. Karin Amukugo Fröhlich, post-doc researcher, Aalto University

We wholeheartedly thank you dear respected members for the solar electricity that you have donated and installed in our house. As of now, my wife and I are flexibly able to do our work from home due to the covid 19 lockdown regulations. In fact, we even managed to recruit two employees whom we are able to reimburse with the little we acquire from our sales.

We appreciate the wi-fi very much because it enables us to do our marketing for our products.

Our only shortcoming is the space to do our carpentry work because at the moment we work from the sitting room which is not very ideal and the decrease in numbers of customers due to Covid19. We really appreciate what you have done for us may God bless you. When we are done with our carpentry work, I usually borrow a vehicle to transport the goods to the customers or to the open market.

Further notice: During a telephone conversation, it became known that the employed two persons are youth from the neighborhood in the Okalevona area and one additional volunteer from Ondangwa municipal area. The volunteer is a graduate from Ongwediva Vacation Trading College. (VTC)  The graduate is seeking work experience and it’s a pity that they are only able to provide transport fare to and from work since the business is struggling due to Covid-19.

Oniipa Address to Fusion Grid

Mr. Junias Jakob, Chief Executive Officer, Oniipa Town Council


As a former Finish Missionary Station, Oniipa Town is privileged to be the African town to host the modular Fusion Grid pilot project. This project is in itself a contribution to realization of our first 5 year strategic plan for the period of 2019/20 – 2023/24, which is geared towards the rural-urban transformation of Oniipa.

Embarking upon smart initiatives like the Fusion Grid technology to address pressing socio-economic issues for our communities tops our strategic intents list. Electricity and internet connectivity are some of these much needed essential needs for our people at this time when they need it most to improve their livelihoods – including that of school leaners who need electricity and internet for their studies.

We are very ambitious to scale out this project to most of our vulnerable residents in informal settlements upon its successful completion.  Our expectation is that it will be very affordable and user-friendly to the end users as we expect most of the system components to be sourced locally – thereby saving on material import levies.

Pilot system development in three stages: Laboratory, Temporary field, and Planned field configurations

Iurii Demidov, M.Sc.(Tech.), doctoral candidate, LUT University

Fusion Grid project includes installation of two pilot system: one in the laboratory of LUT University Green Campus, and in the target market pilot site in Oniipa, Namibia. Both systems have the same configuration in order to test a set of functionalities and digital services in the laboratory first, and as a next step then move it to the field site. Table 1 presents system components of the final configuration.

EquipmentModelNumberNominalTotal
PanelsMono chrystal 5BBSS30512 (3×4)305 W3.66 kW
BatteriesFreedomWon Lite 5/424 kWh8 kWh
Inverter-MPPT-ChargerVictron EasySolar 48/5000/70 MPPT 150/10015 kW5 kW
LTE Base transceiver stationNokia Flexi Zone Micro1100 W150 W
Control device/ digital service platformRaspberry Pi316 W48 W
Table 1. Components of the planned Fusion Grid pilot system.

Laboratory installation

The Laboratory pilot was installed in the autumn of 2019 in the LUT University laboratory. Initially, the system had Lead Acid battery storage, which was used as a backup supply while system tuning, then it was replaced with 8kWh Li-ion batteries. While lab pilot installation, the energy management control system was designed, which is applied with raspberry pi 4, which has a Modbus TCP connection with the maximum power-point tracker (MPPT) – inverter unit, where the battery, PV power supply, and load data is gathered. The control system includes the provision of uninterrupted power supply functionality, estimation of battery lifetime, data collection and storing, and remote connection access. The battery energy storage system (BESS), consisting of two battery packs, is tuned for parallel operation and together with MPPT and the smart charger has a communication connection with the inverter.

As the weather conditions at the site of LUT University in Finland are different from Namibian one, starting from November till April the PV panel arrays are replaced with Chroma 62000h power source. This replacement allows to utilize the system during the whole year and test artificially generated different weather conditions.

Field: Pilot system

The field pilot system was installed in December 2019 in Oniipa in Namibia. The system provides electricity, connectivity and digital services for five households. Due to delays and transportation and issues at customs regarding equipment delivery, the initial setup configuration was composed of temporary solutions, and thus we had twice less PV power production and BESS energy storage as it should have regarding the set plans. In addition, only data about customer loads; energy consumption was available. All the rest data about power production, BESS state of charge was not available. This limited installation forced to design special controllability, which limited battery night consumption and was focused on avoiding system blackouts. The system was controlled by estimations, not by measured values. Introduction of this control system allowed to minimize the number of electricity interruption, but it was not optimized or accurate.

In the middle of March (18th March) , when the ordered devices from South Africa have finally arrived, it was planned to visit the Namibia pilot site and make system upgrade from the temporary configuration to the planned one. However, due to the COVID19 pandemic, the trip was canceled one day before the flight. Despite this obstacle, the system was updated remotely and with the help of locals and Prof. Marko Nieminen who managed to deliver major part of the necessary components and equipment to the site. After the upgrade of the installation, carried out locally, the system was launched with its full functioning without the restrictions present with the temporary system. At this moment laboratory and field pilot systems have the same configuration and functionality. This is key thing when new supervision functionalities, operations and control algorithms are developed further.

Figure 1 illustrates the temporary and final configurations of the field pilot.




Figure 1. initial and final configurations of the field pilot system.

The Evolving Use of Electricity

The installation of the pilot system in Namibia brought a lot of benefits to the locals in a form of more electricity available. Figure 2 shows the power and energy consumption rise of consumers. The actual electricity usage is significantly higher compared to the initial questionnaires, which were gathered before the pilot system with temporary configuration was commissioned in the 7th of December 2019. It shows that locals get accustomed to electricity and Internet usage and acquired many of electric appliances. After system upgrade done in March, we expected more active night energy consumption.

As you can see from Figure 2, the local citizens starting from the system update, started using electricity without limitation and electricity usage shifted from day to morning and evening, forming power peaks. Such consumption behavior is similar to confident electricity users.

Figure 2. Development of energy consumption (left) and power profiles (right) from February to October.