Against the backdrop of Yinchuan’s iconic Helan Mountains, a cluster of SMRAAD’s 20KW H-type vertical axis wind turbines now stands under a brilliant blue sky—marking the completion of a distributed renewable energy project in 2025. The photograph captures the turbines’ sleek white profiles rising above tree-lined streets and parked vehicles, blending seamlessly with the city’s suburban landscape to deliver on-site clean power.
Designed for Yinchuan’s semi-arid climate and variable wind patterns, these H-type vertical axis units offer key advantages over traditional horizontal turbines. Their vertical orientation allows them to capture wind from any direction, eliminating the need for complex yaw mechanisms and ensuring reliable performance in the region’s gusty, multi-directional breezes. Each 20KW turbine features a low-noise, modular design, making it ideal for distributed urban and suburban settings where space and community impact are priorities.
The project, consisting of multiple 20KW turbines, is projected to generate ~55,000 kWh of clean electricity annually—enough to power 18 local households or small businesses—while reducing carbon emissions by approximately 41 metric tons per year. By integrating directly with the local grid, the system enhances energy resilience for Yinchuan’s growing suburban communities, reducing reliance on fossil-fueled power and supporting China’s “Dual Carbon” goals.
“Yinchuan’s unique wind resources and urban-suburban landscape demand flexible, scalable renewable solutions,” said our on-site project lead. “These H-type turbines demonstrate how distributed wind can transform everyday energy use—cutting costs, lowering carbon footprints, and setting a benchmark for sustainable development in northwest China.”
This installation underscores SMRAAD’s expertise in tailoring renewable technology to regional needs. By combining vertical axis efficiency with grid integration capabilities, we’ve created a replicable model for cities across the country, where distributed energy is increasingly critical to balancing growth with sustainability. As Yinchuan continues to expand, this project serves as a blueprint for a greener, more resilient energy future.
As dawn breaks over Baicheng’s industrial district, a row of sleek H-type vertical axis wind turbines stands tall against the pastel sky—marking the successful deployment of SMRAAD’s 30kW distributed grid-connected wind power system in late 2025. The photograph captures the project’s scale: six white, compact turbines integrated seamlessly with the zone’s warehouses and infrastructure, delivering reliable, on-site clean energy to local manufacturing operations.
Unlike horizontal axis models, these H-type vertical axis turbines are engineered for Baicheng’s unique conditions: their vertical design allows them to capture wind from any direction, eliminating the need for yaw mechanisms and ensuring efficient performance in the region’s variable, low-to-moderate wind speeds. Each 30kW unit features a modular, low-noise design, making it ideal for distributed industrial settings where space and noise constraints are critical.
The distributed grid-connected system is a game-changer for the Baicheng industrial zone. Collectively, the turbines are projected to generate ~85,000 kWh of electricity annually—enough to power 25 small factories or 60 rural households—while reducing carbon emissions by approximately 64 metric tons per year. By feeding excess power back into the local grid, the system also enhances energy resilience, mitigating the risk of outages for nearby businesses.
“Baicheng’s industrial landscape demands energy solutions that balance reliability, efficiency, and sustainability,” noted our on-site project manager. “These H-type turbines not only meet the zone’s immediate power needs but also demonstrate how distributed wind can transform industrial energy use—cutting costs, reducing carbon footprints, and supporting China’s Dual Carbon goals.”
This project underscores SMRAAD’s expertise in tailoring renewable energy solutions to diverse environments. By combining vertical axis technology with grid integration capabilities, we’ve created a scalable model for industrial zones across northern China, where wind resources are abundant but underutilized in distributed settings. As we expand our footprint in the region, this installation serves as a blueprint for a more sustainable, decentralized energy future.
Nestled against the snow-dusted mountain ridges of Gansu Province, a sleek 50kW electronically controlled wind turbine now stands tall under a vivid blue sky—marking SMRAAD’s latest milestone in China’s northwest renewable energy landscape. Installed in late 2025, this grid-connected system is engineered to deliver reliable, clean power to remote local communities, while showcasing our expertise in adapting wind technology to high-altitude, variable wind conditions.
The photograph captures the turbine’s robust white tower and precision-engineered rotor blades, designed to optimize energy capture even in Gansu’s gusty, low-consistency wind patterns. What sets this project apart is its electronically controlled core: the system features real-time wind speed adjustment, grid synchronization technology, and remote monitoring capabilities, ensuring stable power output and seamless integration with the local electrical grid. This adaptability is critical for Gansu’s rugged terrain, where traditional turbines often struggle with voltage fluctuations and intermittent wind.
For the region, this installation represents more than just infrastructure—it is a step toward energy independence. The 50kW system is projected to generate ~120,000 kWh of clean electricity annually, enough to power 40 rural households and reduce local reliance on coal-fired generators. By feeding excess power back into the grid, it also supports Gansu’s broader goal of meeting China’s “Dual Carbon” targets, cutting approximately 90 metric tons of carbon emissions each year.
“Gansu’s vast wind resources have long been underutilized in remote areas,” said our on-site project lead. “This electronically controlled turbine solves the challenge of grid stability in mountainous regions, proving that tailored renewable solutions can bridge the energy gap for underserved communities.”
As SMRAAD expands its footprint in China’s northwest, this project underscores our commitment to combining technical innovation with local impact. By prioritizing grid compatibility and adaptive design, we are not only delivering clean energy—we are building a blueprint for sustainable development in some of China’s most challenging landscapes.

China Ends Solar Panel Export Tax Rebates: A New Era for Global PV Competition

On January 9, 2026, China announced the full abolition of VAT export tax rebates for solar panels starting April 1, 2026, following a 2024 cut from 13% to 9%. This marks a key shift from policy support to market-driven competition in China’s PV sector, covering core products like solar cells and modules.
Industry estimates show the 9% rebate removal will raise export costs by ~0.8 cents per watt, squeezing short-term margins amid global supply gluts. The three-month transition period has spurred a rush to export, with some factories boosting output before the deadline, though leaders like Canadian Solar adopt a prudent, long-term stance.
The policy aims to curb price wars and drive quality upgrades. For years, tax rebates fueled cut-throat competition and trade frictions, while China’s PV giants faced 2025 losses. Experts hail the move as necessary to phase out inefficient capacity, favoring firms with tech and brand strength.
Enterprises are now shifting to high-efficiency products and global localization, using hubs like Hungary and the UAE to offset costs. While short-term consolidation is inevitable, the policy paves the way for rational global pricing and reduced tensions, signaling a mature, sustainable Chinese PV supply chain.
Source: Ministry of Finance, China Photovoltaic Industry Association, BloombergNEF

On a crisp December afternoon (15:08, December 17, 2025) in Lviv Oblast, Ukraine, two 100KW horizontal-axis wind turbines stand fully operational—marking another milestone in SMRAAD’s global renewable energy footprint.
The photo captures the finished setup: the turbines’ sleek white towers and blades rise against a soft, overcast sky, integrated seamlessly with local power infrastructure (visible overhead lines). These units are engineered for Ukraine’s temperate climate: their high-efficiency blades optimize energy capture in variable wind speeds, while robust tower design withstands regional weather conditions.
This project delivers reliable, grid-compatible power to the Lviv area, supporting local energy resilience and reducing reliance on non-renewable sources. Our team coordinated closely with on-site partners to complete installation efficiently, even amid the region’s late-year conditions.
Local Collaboration: Building Together
Success here relied on deep partnership with Lviv-based energy specialists and construction teams:
Our SMRAAD engineers worked with local technicians to adapt turbine foundations to the region’s soil composition, ensuring long-term structural stability.
Local logistics partners supported timely delivery of components (even during winter transit delays), keeping the project on schedule.
Post-installation, we trained 6 local operators on routine maintenance—empowering the community to manage the turbines independently.
“The collaboration with SMRAAD wasn’t just a contract—it was knowledge sharing,” said our local construction lead. “We now have the skills to support more renewable projects here, which is a lasting benefit.”
Project Impact: By the Numbers
These two 100KW turbines are projected to:
Generate ~350,000 kWh of clean electricity annually (enough to power ~80 local households)
Reduce carbon emissions by ~260 metric tons per year (equivalent to taking 56 gasoline-powered cars off the road)
Offset ~180 tons of coal consumption annually, cutting local air pollutant emissions (e.g., sulfur dioxide, particulate matter)
On-Site Perspective
“Having SMRAAD’s 100KW turbines online is a game-changer for our local energy capacity,” noted a regional energy coordinator. “The speed of installation and the turbines’ adaptability to our area’s wind patterns mean we’re already seeing consistent, clean power input—exactly what we needed.”