At Konnex, we drive the energy transition with third-generation solar technology, leading advances in HJT, chalcogenide and CdTe modules. Our goal is to reduce costs and scale the production of high-efficiency cells, consolidating ourselves as references in N‑type HJT technology with products like the SOL‑IFIC HJT series and the MYMH‑54HDB model, recognized for their quality and performance.

Our solutions are part of a comprehensive ecosystem that combines solar energy with storage, wind and hydrogen, managed through a digital platform that integrates IoT, Big Data and artificial intelligence. This allows us to optimize energy generation and consumption, improve grid stability and contribute to global decarbonization with scalable, reliable infrastructure oriented towards a sustainable future.

At Konnex, we lead the development of energy storage solutions that integrate latest-generation batteries, power conversion systems (PCS), intelligent management (EMS) and advanced battery control (BMS). This combination allows for optimized AC/DC conversion, intelligent energy dispatch and maximum operational safety, ensuring efficiency and reliability in renewable energy projects of any scale.

Our Konnex Energy Storage suite is designed to support power grids and optimize renewable resources through a digital platform that integrates IoT, Big Data and artificial intelligence. This allows us to offer real-time control, predictive maintenance and full integration with solar, wind and hydrogen energy, reducing CO₂ emissions and strengthening grid resilience. With scalable and sustainable infrastructure, we support the growth of the green economy and accelerate the transition to a carbon-free future.

At Konnex, we lead the development of latest-generation wind turbines, designed to offer maximum efficiency and reliability in any environment. Our range includes high-power offshore platforms of up to 22 MW with rotors over 310 m in diameter and advanced materials such as carbon fiber, allowing for a reduction in the number of wind turbines and optimization of the levelized cost of energy (LCoE) even in deep and demanding marine environments. We also have floating turbines from 5.5 MW to 7.25 MW and intelligent onshore platforms from 3 to 6 MW, adapted to coastal zones, high mountains and typhoon-prone regions.

Our technology integrates advanced wind and wave simulations, intelligent control systems and sensors based on big data and artificial intelligence to guarantee safety and optimum performance. Additionally, our Hybrid Drive system combines medium-speed gears with a compact and lightweight design to maximize reliability and reduce costs. With models capable of generating up to 80 GWh per year —enough energy to supply more than 20,000 homes— at Konnex we accelerate the global energy transition, reduce CO₂ emissions and build a sustainable future with clean and scalable energy.

At Konnex, we combine our experience in renewable energy with advanced deep-sea aquaculture systems, creating productive and resilient environments. We offer state-of-the-art infrastructure for the high seas, with cages of 50,000 to 100,000 m³ capable of resisting super typhoons and producing between 700 and 1,300 tons annually. Our Marine Energy Island proposal integrates floating turbines, aquaculture, wave energy, marine hydrogen production and sustainable tourism, as well as projects that combine offshore wind farms with algae and mussel crops to better utilize marine space, restore ecosystems and simultaneously generate clean energy and food.

Thanks to the AI Marine Brain platform, which combines intelligent perception and satellite communication, we collaboratively manage marine energy, storage and hydrogen. This integration allows for the capture of carbon and nitrogen through marine biomass, significantly reducing emissions and promoting a sustainable blue economy. Dedicating just 10% of a wind farm's area to shellfish or seaweed farming could offset up to 40% of the CO₂ generated by regional agriculture, diversifying income and minimizing environmental impact in coastal areas.