{"id":6928,"date":"2026-06-11T15:14:57","date_gmt":"2026-06-11T15:14:57","guid":{"rendered":"https:\/\/couleenergy.com\/?p=6928"},"modified":"2026-06-11T15:15:00","modified_gmt":"2026-06-11T15:15:00","slug":"por-que-vipv-es-la-tecnologia-de-energia-de-emergencia","status":"publish","type":"post","link":"https:\/\/couleenergy.com\/es\/why-vipv-is-the-emergency-power-technology\/","title":{"rendered":"\u00bfPor qu\u00e9 VIPV es la tecnolog\u00eda de energ\u00eda de emergencia cuando se agota el di\u00e9sel?"},"content":{"rendered":"\n\n
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When a major earthquake cuts power to a city, what happens to the evacuation centre running on a diesel generator?<\/strong> In documented cases, the answer is always the same. Fuel runs out in 24 to 72 hours. Resupply trucks cannot get through damaged roads. The generator stops. Japan knows this failure mode better than any country on earth — it accounts for 18.5% of all global earthquakes of magnitude 6 or higher. The 2011 Great East Japan Earthquake knocked out roughly 1.9 million fixed telephone lines and 29,000 mobile base stations[1]<\/sup>. Diesel fuel logistics stayed disrupted for two to three weeks across affected areas.<\/p>\n \n

That failure pattern is the starting point for a new IEA PVPS Task 17 technical report, VIPV as Energy Sources in Disaster Zones<\/em>, published in 2026[2]<\/sup>. It asks a direct question: can solar-equipped electric vehicles fill the energy gap when grids fail and diesel runs dry? Backed by Monte Carlo simulations, real-world case studies, and social behaviour modelling, the answer is a firm yes.<\/p>\n \n

This article explains what that finding means for fleet operators, emergency agencies, and B2B buyers sourcing solar solutions for mobile and critical-infrastructure applications today.<\/p>\n \n<\/div>\n\n\n\n\n

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What Is VIPV — and Why Does Mobility Change Everything?<\/h2>\n \n

VIPV stands for Vehicle-Integrated Photovoltaics. Solar cells are embedded directly into the vehicle structure — roof, bonnet, trailer top, or side panels. The power they generate can charge the onboard battery, run auxiliary loads, or be shared with external devices via V2L (vehicle-to-load) ports.<\/p>\n \n

The critical difference from rooftop solar is simple: mobility. A fixed solar array stays where it is. A VIPV-equipped vehicle drives to wherever power is needed most.<\/p>\n \n

This matters enormously in disasters. Roads typically reopen before power grids are restored. Vehicles are often the first assets that can reach affected communities. If those vehicles carry integrated PV and stored battery energy, they arrive not just as transport — they arrive as mobile power plants.<\/p>\n \n

Kenji Araki, lead author of the IEA PVPS Task 17 report and professor at the University of Miyazaki, Japan, frames it directly: “VIPV and SEVs combine mobility, energy generation and storage in a single system, offering a new approach to distributed disaster resilience.”<\/p>\n \n

Unlike stationary PV systems, Solar Electric Vehicles (SEVs) can autonomously generate electricity, reposition to areas with stronger sunlight, and deliver both energy and supplies to affected communities in a single trip.<\/p>\n \n<\/div>\n\n\n\n\n

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What the IEA PVPS Task 17 Research Actually Demonstrates<\/h2>\n \n

The 2026 IEA PVPS Task 17 report is the most rigorous study of VIPV in disaster scenarios published to date. Its core Monte Carlo model assesses how many SEVs a community needs to sustain critical facilities for seven days after a major earthquake in a 5 km radius zone. Crucially, the model goes beyond technical variables. It also incorporates social behaviour — specifically, how many vehicle owners will voluntarily drive to an evacuation centre to share surplus energy.<\/p>\n \n

Results are encouraging across a wide range of weather and behaviour assumptions. Voluntary energy sharing from SEV owners can significantly improve a community’s ability to maintain essential services during extended outages. The report positions SEVs as a complement to stationary PV-plus-storage and conventional backup systems — not a replacement, but a critical gap-filler in the first hours and days after a major event.<\/p>\n \n

Independent peer-reviewed research adds concrete numbers. A 2025 study from the University of Palermo, published in the World Electric Vehicle Journal<\/em>, modelled VIPV performance across Italian cities under disaster conditions. VIPV-equipped ambulances, even in worst-case December scenarios, can power onboard medical devices for 1 to 15 hours per day[3]<\/sup>. In optimal summer configurations, large container-based mobile operating rooms with roof-mounted PV can generate up to 120 times their daily medical device energy demand[3]<\/sup> — providing substantial surplus energy for sharing with surrounding facilities.<\/p>\n \n

The IEA PVPS conclusion is unambiguous: commercial VIPV systems already meet the technical standards for real-world disaster deployment. The gap between research and implementation is closing fast.<\/p>\n \n<\/div>\n\n\n\n

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A rendering of the Worksport solar cover installed in a Jeep | Image- Worksport<\/figcaption><\/figure>\n\n\n\n\n
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Five Vehicle Types Where VIPV Delivers the Greatest Emergency Value<\/h2>\n \n

Not every vehicle benefits equally from integrated PV. The strongest cases share a common profile: meaningful usable roof area, frequent parked operation, and critical onboard power loads.<\/p>\n \n

1. Ambulances and Medical Response Vehicles<\/h3>\n \n

These vehicles need continuous power for monitoring equipment, refrigeration, defibrillators, and communications. VIPV reduces dependence on engine idling and shore power. Solar Team Eindhoven’s Stella Juva — designed to become the world’s first ambulance running entirely on solar energy when it launches in July 2026[10]<\/sup> — is being built around Aiko ABC back-contact cells specifically to power both the vehicle and onboard medical equipment from sunlight alone.<\/p>\n \n

2. Mobile Command and Communication Units<\/h3>\n \n

Disaster coordination demands satellite communications, computing, and lighting running continuously — often from a parked vehicle for hours at a stretch. VIPV combined with battery storage makes these units genuinely self-sufficient without engine idling or generator noise.<\/p>\n \n

3. Emergency Logistics Trucks and Trailers<\/h3>\n \n

Trucks and trailers offer the largest usable flat surface area of any road vehicle — and the numbers now back up the potential. The EU-funded SolarMoves project, drawing on 1.3 million kilometres of measured data across 23 vehicle types in Europe, found that VIPV extends electric truck daily range by up to 15%[13]<\/sup>. Truck trailers fitted with roof panels generate up to 55 kWh per day in summer — rising to 90–110 kWh when side panels are included — enough to operate refrigeration or hydraulic systems entirely from solar power.<\/p>\n \n

The IEA PVPS disaster report validates this at the operational level. A full 12-month monitoring study of the SolaronTop system on a commercial truck in the Miyazaki region recorded an annual average of 38.3 kWh per day. Even in December — the worst-case winter month — daily output held at 31 kWh[2]<\/sup>. In a disaster zone with severed fuel logistics, that consistently available energy makes the difference between a functional and a grounded logistics fleet.<\/p>\n \n

4. Water Purification and Refrigerated Trailer Units<\/h3>\n \n

These trailer-mounted systems need steady power to function. Flexible PV on a trailer roof is among the most practical VIPV integrations available today — straightforward to install, high-impact in operation, and directly critical for post-disaster public health.<\/p>\n \n

5. Evacuation Buses and Emergency Shuttles<\/h3>\n \n

Buses offer more roof area than any other road platform. Even moderate PV coverage can supply lighting, climate control, charging points, and communications — meaningfully improving conditions for evacuees during extended shelter-in-place situations.<\/p>\n \n<\/div>\n\n\n\n\n

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Why Standard Solar Panels Cannot Be Used on Vehicles<\/h2>\n \n

This surprises many buyers. You cannot take a standard rooftop solar panel and bolt it to a vehicle roof. The technical reasons are substantial and non-negotiable.<\/p>\n \n

Vehicle surfaces are curved.<\/strong> Standard glass panels are rigid and flat. Fitting a flat panel over a curved roof creates air gaps, stress fractures, and laminate failure over time.<\/p>\n \n

Vehicles vibrate constantly.<\/strong> Road impacts, potholes, and acceleration forces create mechanical fatigue cycles that crack standard cell solder joints within months. Fixed rooftop panels are never tested for this. VIPV modules must meet automotive-grade vibration standards that substantially exceed IEC 61215 requirements.<\/p>\n \n

Thermal extremes are severe.<\/strong> Vehicle roof surfaces in summer regularly reach 70–90°C[4]<\/sup>. Standard modules are designed for 85°C damp heat under static conditions. VIPV adds rapid daily thermal cycling on top of that — different materials expanding and contracting at different rates, stressing the laminate stack every single day.<\/p>\n \n

Partial shading is a daily operating condition, not an edge case.<\/strong> A vehicle moves through tree canopy, urban canyons, and buildings all day. On a conventional series-connected string, even a small shaded area causes disproportionate power loss and can create hotspots that permanently degrade the module.<\/p>\n \n

Weight limits are real.<\/strong> A standard framed glass module weighs approximately 10–15 kg per square metre[5]<\/sup>. On a vehicle, that load directly affects fuel efficiency, payload, and handling — every kilogram matters.<\/p>\n \n

Each challenge has a different engineering answer depending on vehicle type, climate, and duty cycle. There is no universal VIPV panel. That is precisely why module co-development with automotive partners is the right approach — not off-the-shelf product adaptation.<\/p>\n \n<\/div>\n\n\n\n

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VIPV for trucks, image: \u00a9 Fraunhofer ISE<\/figcaption><\/figure>\n\n\n\n\n
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Why BC Cells and ETFE Flexible Modules Are the Right Architecture for VIPV<\/h2>\n \n

Among the cell and module architectures now available, back-contact (BC) technology combined with ETFE flexible construction has emerged as the preferred specification for serious VIPV applications. Multiple independent lines of evidence converge on this conclusion.<\/p>\n \n

Higher Efficiency Where Surface Area Is Limited<\/h3>\n \n

A typical passenger car offers roughly 1 to 3 usable square metres of PV surface after accounting for windows, roof rails, and compound curves. A van or truck offers more, but still far less than a fixed installation. Every additional percentage point of cell efficiency converts directly into more power from the same constrained area. BC cells eliminate front-side metal busbars entirely — all contacts move to the rear of the cell. The result is maximum light-absorbing surface and module efficiency levels that consistently outperform front-contact alternatives under real operating conditions.<\/p>\n \n

Fundamentally Better Shading Performance<\/h3>\n \n

BC cells have a low reverse breakdown voltage that allows shaded cells to self-bypass[7]<\/sup>. This contains shading losses to the affected area rather than cascading across the full string. Simulation studies confirm that shading mismatch losses in VIPV systems scale nonlinearly — making bypass performance a critical design requirement. LONGi’s HPBC 2.0 manufacturer documentation reports a substantial reduction in partial-shading power loss versus conventional front-contact designs[8]<\/sup>. For a vehicle moving through variable light conditions throughout its working day, reliable shading tolerance is not optional. It is a fundamental operating requirement.<\/p>\n \n

Aesthetics That Match OEM and Fleet Standards<\/h3>\n \n

BC modules have no front busbars or visible grid lines. The surface is uniformly black and visually clean. This matters to OEM partners and fleet buyers who need solar integration to look intentional, not retrofitted. A 2024 IEA PVPS Task 17 expert survey of 110 global VIPV specialists — conducted by TNO (Netherlands Organisation for Applied Scientific Research) — found a clear preference for back-contact technology with no visible front metal, ranking it above all other cell architectures for vehicle applications[6]<\/sup>.<\/p>\n \n

ETFE: The Front Sheet That Survives Mobile Environments<\/h3>\n \n

The front surface of a VIPV module takes stone chips, hail, UV bombardment, and — in coastal or marine deployment — salt spray. Budget PET front sheets degrade noticeably within 1 to 3 years under these conditions, yellowing and losing light transmission. ETFE (ethylene tetrafluoroethylene) is chemically inert, UV-stable, and self-cleaning, with documented service lives of 10 to 20+ years in demanding outdoor applications[9]<\/sup>. It transmits 92 to 95% of incoming light while adding negligible weight. For applications where long-term structural reliability matters — and in disaster response, it always does — ETFE is the correct specification.<\/p>\n \n

Real-World Projects Are Already Choosing BC Technology<\/h3>\n \n

Solar Team Eindhoven selected Aiko ABC cells for Stella Juva precisely because the full back-contact design maximises light absorption while silver-free metallization reduces the risk of microcracks under vehicle operating conditions. In May 2026, the Innoptus Solar Team’s Infinite Apollo — Belgium’s world-champion solar race car, equipped with LONGi BC cell technology and flexible VIPV solutions — completed a 200 km urban road test across Belgium under live traffic and variable irradiance[11]<\/sup>, demonstrating real-world output stability. These are not laboratory results. They are operational validations on public roads.<\/p>\n \n<\/div>\n\n\n\n

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From a Single Vehicle to a Community Resilience Network<\/h2>\n \n

One VIPV vehicle provides limited power. A fleet changes the equation entirely.<\/p>\n \n

The IEA PVPS Task 17 report treats SEV fleets as a swarm of small, distributed power plants. Each new solar vehicle that arrives in a disaster zone adds available emergency capacity — organically, without any infrastructure buildout. Stationary PV systems require site preparation and grid connection. Diesel generators require fuel convoys. Solar vehicles require neither. Their generation capacity arrives already installed and ready to deploy.<\/p>\n \n

The social dimension is equally important. Monte Carlo modelling shows that voluntary energy sharing from SEV owners — simply driving to an evacuation centre and offering surplus battery capacity — meaningfully reduces the risk of critical service failure during extended outages. No central utility can replicate that distributed, community-driven resilience model.<\/p>\n \n

The environmental comparison is stark. Diesel generators at emergency sites typically produce 65 to 85 dBA of noise, local air pollution, and significant CO₂ output per day. VIPV-equipped vehicles produce zero operational emissions and run near-silently. For medical sites, urban evacuation centres, and schools repurposed as shelters, that matters in ways that go beyond any efficiency calculation.<\/p>\n \n<\/div>\n\n\n\n\n

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What B2B Buyers Should Prioritise When Sourcing VIPV Modules<\/h2>\n \n

Emergency response agencies, fleet operators, NGOs, and civil protection departments evaluating VIPV procurement should focus on a clear set of criteria.<\/p>\n \n

Custom panel dimensions per vehicle platform.<\/strong> There is no universal VIPV solution. The correct module for an ambulance roof differs from the solution for a logistics truck or an evacuation bus. String configuration, cell layout, bypass diode strategy, connector specification, and cable routing all need to be engineered per platform — not selected from a catalogue.<\/p>\n \n

Certification depth beyond IEC baselines.<\/strong> IEC 61215 and IEC 61730 are the starting point, not the finish line[12]<\/sup>. Automotive-grade vibration testing, thermal cycling documentation, UV aging data, and impact resistance specifications are equally important for vehicle applications. Ask for them before committing to a supplier.<\/p>\n \n

BC + ETFE as the minimum specification for demanding applications.<\/strong> Buyers seeking the best available combination of power density, shading tolerance, service life, and weight should specify back-contact cells with ETFE front sheet as a non-negotiable requirement for any serious VIPV or emergency vehicle deployment.<\/p>\n \n

Supplier capability to co-develop.<\/strong> The difference between a genuine VIPV solution and a flexible panel stuck on a roof is engineering partnership. A supplier who can adjust panel geometry, cell interconnection design, and electrical architecture for a specific vehicle model is a real VIPV partner. One who only offers standard catalogue formats is not.<\/p>\n \n<\/div>\n\n\n\n\n\n

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The Bottom Line<\/h2>\n \n

VIPV is moving from niche innovation to serious emergency infrastructure. The IEA PVPS has published the research. Fraunhofer ISE has measured the performance across 1.3 million real driving kilometres. The University of Palermo has modelled the ambulance and field-hospital applications. Every strand of evidence points the same direction.<\/p>\n \n

Solar-equipped vehicles can keep lights on, medical equipment running, and communications active when grids fail and diesel runs dry. The module architecture best suited to the challenge — back-contact cells in lightweight ETFE flexible construction — is commercially available today.<\/p>\n \n

The question for fleet operators, emergency planners, and forward-looking B2B buyers is not whether VIPV makes sense for disaster resilience. The question is whether to act now or wait for the field to become crowded.<\/p>\n \n<\/div>\n\n\n\n\n\n

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Sourcing BC Flexible ETFE Modules for VIPV or Emergency Applications?<\/h2>\n

Couleenergy’s CLM flexible module series is built around LONGi HPBC 2.0 and Aiko ABC Gen 3 back-contact cells, encapsulated in a multi-layer ETFE + POE construction engineered for demanding mobile, marine, and off-grid deployments. Custom OEM specifications, panel dimensions, and electrical configurations are available for qualified B2B projects.<\/p>\n

Contact the Couleenergy technical team:  info@couleenergy.com<\/a>  |  +1 737 702 0119<\/a><\/p>\n <\/div>\n \n<\/div>\n\n\n\n

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Request a Quote<\/a><\/div>\n<\/div>\n\n\n\n
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Footnotes & Sources<\/p>\n

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  1. \n World Bank GFDRR — Emergency Communication Knowledge Note 3-2<\/em> (2013). Documents that the 2011 Great East Japan Earthquake rendered 1.9 million fixed-line services and 29,000 mobile base stations inoperable in the Tohoku and Kanto regions.
    \n     https:\/\/documents1.worldbank.org\/curated\/en\/382681468038643978\/pdf\/793730BRI0drm000Box377374B00Public0.pdf<\/a>\n <\/li>\n \n
  2. \n IEA PVPS Task 17 — VIPV as Energy Sources in Disaster Zones<\/em> (2026). Lead author: Kenji Araki, University of Miyazaki. Monte Carlo modelling, social behaviour simulation, and the SolaronTop 12-month operational case study (38.3 kWh\/day average, 31 kWh December floor).
    \n     https:\/\/iea-pvps.org\/key-topics\/t17-vipv-disaster-zones-2026\/<\/a>\n <\/li>\n \n
  3. \n Samadi, H. et al. — “Evaluating the Role of VIPV Systems in a Disaster Context,” World Electric Vehicle Journal<\/em>, Vol. 16(4), Art. 190, University of Palermo, March 2025. Models ambulances (1–15 hrs\/day, worst-case December) and large container mobile operating rooms (up to 120× daily medical device demand, optimal summer) across Italian cities.
    \n     https:\/\/doi.org\/10.3390\/wevj16040190<\/a>\n <\/li>\n \n
  4. \n Kutter, C. et al. — “Lightweighting vehicle-integrated photovoltaic modules,” pv magazine<\/em>, June 2024. Reviews VIPV module thermal conditions including vehicle roof surface temperatures reaching 70–90°C and material stress under thermal cycling.
    \n     https:\/\/www.pv-magazine.com\/2024\/06\/06\/lightweighting-vehicle-integrated-photovoltaic-modules\/<\/a>\n <\/li>\n \n
  5. \n EPFL Infoscience — Lightweight VIPV module research. Compares standard glass module weight (~10 kg\/m²) against carbon-fibre and polymer-composite VIPV constructions (3.45–5.21 kg\/m²), with analysis of reliability tradeoffs.
    \n     https:\/\/infoscience.epfl.ch\/entities\/publication\/923e9acc-571c-4e80-ab70-e2ed825edd99<\/a>\n <\/li>\n \n
  6. \n IEA PVPS Task 17 \/ TNO — Expert Survey on Technical Requirements of PV-Powered Passenger Vehicles<\/em> (2024). 110 global VIPV experts; clear preference for back-contact (IBC) technology with no visible front metal across all vehicle categories.
    \n     https:\/\/iea-pvps.org\/key-topics\/expert-survey-on-technical-requirements-of-pv-powered-passenger-vehicles\/<\/a>\n <\/li>\n \n
  7. \n IEA PVPS Task 17 Fact Sheet — Vehicle-Integrated PV: Status and Perspectives<\/em> (2026). BC cell shading tolerance, efficiency characteristics, and the trajectory toward sub-$1\/Wp VIPV panel costs.
    \n     https:\/\/iea-pvps.org\/fact-sheets\/fs-t17-vipv-status-perspectives\/<\/a>\n <\/li>\n \n
  8. \n LONGi Solar \/ Energy Industry Review — “LONGi BC Technology Ready for the Challenges of Urban Mobility” (May 2026). LONGi HPBC 2.0 performance under VIPV conditions including partial shading vs conventional front-contact designs.
    \n     https:\/\/energyindustryreview.com\/renewables\/longi-bc-technology-ready-for-the-challenges-of-urban-mobility\/<\/a>\n <\/li>\n \n
  9. \n Sungold Solar — ETFE Flexible Solar Panels: 18-Year Lab Data & Durability Engineering Guide<\/em> (2025). ETFE UV resistance, light transmittance stability, and service-life data; direct comparison with PET alternatives in mobile and marine environments.
    \n     https:\/\/www.sungoldsolar.com\/etfe-flexible-solar-panels-engineering-guide-lab-data\/<\/a>\n <\/li>\n \n
  10. \n Aiko Solar \/ PV Tech — “AIKO Partners with Solar Team Eindhoven to Power World’s First Solar-Powered Ambulance with ABC Technology” (April 2026). Confirms July 2026 road debut; ABC cell technical rationale: full back-contact for maximum light absorption, silver-free metallization for reduced microcrack risk.
    \n     https:\/\/www.pv-tech.org\/industry-updates\/aiko-partners-with-solar-team-eindhoven-to-power-worlds-first-solar-powered-ambulance\/<\/a>\n <\/li>\n \n
  11. \n LONGi Solar — “Solar Home Run: Infinite Apollo Belgium Road Test” (April 29, 2026). Innoptus Solar Team’s 11th-generation solar race car, equipped with LONGi BC cell technology, completes a 200 km urban route across six Belgian cities under live traffic and variable irradiance.
    \n     https:\/\/www.longi.com\/en\/news\/solar-home-run\/<\/a>\n <\/li>\n \n
  12. \n TÜV Rheinland — “Solar-Powered Vehicles: Development of a New Global Standard” (2024). IEC TC82 project team PT600 developing VIPV-specific standards; explains why IEC 61215 \/ IEC 61730 baselines must be supplemented with automotive-grade vibration, thermal, and irradiance-mapping tests.
    \n     https:\/\/www.tuv.com\/press\/en\/press-releases\/solar-powered-vehicles-new-standard.html<\/a>\n <\/li>\n \n
  13. \n Fraunhofer ISE — “Solar Cells on Vehicles Can Take the Pressure Off the Grid in Europe” — SolarMoves Project Final Results (May 2026). EU-funded consortium (TNO, Fraunhofer ISE, Sono Motors, IM Efficiency, Lightyear); 1.3 million km of measured data, 23 vehicle types. Key findings: electric trucks extend daily range by up to 15%; truck trailers generate up to 55 kWh\/day in summer (90–110 kWh with side panels); cars in Central Europe can cover up to 55% of annual energy demand; estimated 15.6 TWh reduction in EU grid demand by 2030.
    \n     https:\/\/www.ise.fraunhofer.de\/en\/press-media\/press-releases\/2026\/solar-cells-on-vehicles-can-take-the-pressure-off-the-grid-in-Europe.html<\/a>\n <\/li>\n \n <\/ol>\n <\/div>\n \n<\/div>\n","protected":false},"excerpt":{"rendered":"

    Cuando ocurre un desastre, los planificadores de emergencias se enfrentan a un problema espec\u00edfico: \u00bfc\u00f3mo mantener en funcionamiento los suministros esenciales cuando la red el\u00e9ctrica est\u00e1 ca\u00edda y los convoyes de combustible no pueden circular? La energ\u00eda solar integrada en veh\u00edculos ofrece una soluci\u00f3n diferente: una que se adapta a la crisis, genera su propia energ\u00eda a partir de la luz solar y nunca necesita camiones de reabastecimiento.<\/p>","protected":false},"author":1,"featured_media":6934,"comment_status":"open","ping_status":"open","sticky":false,"template":"","format":"standard","meta":{"_seopress_titles_title":"Why VIPV Is the Emergency Power Technology When Diesel Runs Out","_seopress_titles_desc":"When grids fail and diesel runs dry, solar-equipped vehicles keep critical services running. New IEA PVPS research confirms VIPV is ready for emergency deployment.","_seopress_robots_index":"","_seopress_robots_follow":"","_seopress_robots_imageindex":"","_seopress_robots_snippet":"","_seopress_robots_primary_cat":"","_seopress_robots_breadcrumbs":"","_seopress_robots_freeze_modified_date":"","_seopress_robots_custom_modified_date":"","_seopress_robots_canonical":"","_seopress_social_fb_title":"","_seopress_social_fb_desc":"","_seopress_social_fb_img":"","_seopress_social_fb_img_attachment_id":0,"_seopress_social_fb_img_width":0,"_seopress_social_fb_img_height":0,"_seopress_social_twitter_title":"","_seopress_social_twitter_desc":"","_seopress_social_twitter_img":"","_seopress_social_twitter_img_attachment_id":0,"_seopress_social_twitter_img_width":0,"_seopress_social_twitter_img_height":0,"_seopress_redirections_value":"","_seopress_redirections_enabled":"","_seopress_redirections_enabled_regex":"","_seopress_redirections_logged_status":"","_seopress_redirections_param":"","_seopress_redirections_type":0,"_seopress_analysis_target_kw":"","_seopress_news_disabled":"","_seopress_video_disabled":"","_seopress_video":[],"_seopress_pro_schemas_manual":[],"_seopress_pro_rich_snippets_disable_all":"","_seopress_pro_rich_snippets_disable":[],"_seopress_pro_schemas":[],"footnotes":""},"categories":[1127,1],"tags":[],"class_list":["post-6928","post","type-post","status-publish","format-standard","has-post-thumbnail","hentry","category-solar-101","category-uncategorized"],"blocksy_meta":[],"_links":{"self":[{"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/posts\/6928","targetHints":{"allow":["GET"]}}],"collection":[{"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/posts"}],"about":[{"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/types\/post"}],"author":[{"embeddable":true,"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/users\/1"}],"replies":[{"embeddable":true,"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/comments?post=6928"}],"version-history":[{"count":3,"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/posts\/6928\/revisions"}],"predecessor-version":[{"id":6936,"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/posts\/6928\/revisions\/6936"}],"wp:featuredmedia":[{"embeddable":true,"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/media\/6934"}],"wp:attachment":[{"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/media?parent=6928"}],"wp:term":[{"taxonomy":"category","embeddable":true,"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/categories?post=6928"},{"taxonomy":"post_tag","embeddable":true,"href":"https:\/\/couleenergy.com\/es\/wp-json\/wp\/v2\/tags?post=6928"}],"curies":[{"name":"gracias","href":"https:\/\/api.w.org\/{rel}","templated":true}]}}