By the end of 2025, high-performance silicone sealants for construction are quietly transforming the market. Boosted by the “Good Housing” policy, ultra-low energy standards, and urban renewal, these sealants offer high durability, low VOC, self-cleaning, and photocatalytic features, emerging as hidden stars in green building materials. Policy fuels demand: New regulations require public

By the end of 2025, high-purity, biocompatible medical-grade silicone has quietly grown over 40% annually. It’s the key material for humanoid robot “skin” and core component in high-end medical implants and fillers, making it a true hidden champion of the industry. Robotics drive demand: With production ramp-ups for Tesla Optimus and Xiaomi CyberOne, the need for soft, sensor-integrated

While “Liquid Glass” captures consumer attention, the real foundation of the silicone industry in industrial and new-energy markets lies in two fast-growing, high-end products: PV module sealants and battery encapsulation gels. By December 2025, these segments have become the most resilient growth drivers of the silicone market. According to the China Adhesives and Tape Industry Associati

By December 2025, the hottest silicone product is no longer from traditional industrial uses, but an innovative plastic silicone rubber known as “Liquid Glass.” With its dual identity as a stress-relief toy and functional material, it has rapidly gone viral in the consumer market. 🔥 Why is “Liquid Glass” trending? Launched by Wynca Group in early December 2025, the material quickly gaine

The development of standards in the silicone industry is fundamental, guiding, and constraining for low-carbon transformation. It is a core support for shifting the industry from “passive emission reduction” to “systematic decarbonization.” The impact is reflected in four key areas: 1. Standardizing Carbon Footprint Accounting to Solve “Data Distortion” Currently, carbon emission

National policies provide multi-level, systematic support for the green transition of the silicone industry, incorporating it into the core tracks of new materials, high-end manufacturing, and the “dual carbon” strategy, forming a “encourage + constrain + empower” integrated policy framework: 1. Top-Level Design Clarifies Su

Although the green transition of the silicone industry has become a consensus, its implementation still faces multiple practical challenges, mainly reflected in the following five aspects: 1. High Energy Consumption and Emissions Are Hard to Break in the Short Term The synthesis of silicone monomers (DMC) requires high temperature and high pressure, relying heavily on steam and el

Green intelligent manufacturing in the silicone industry has evolved from a “supporting tool” to a core competitive advantage and transformation engine. Its impact is reflected in the following five key dimensions: 1. Tackling High Energy Consumption and Emissions, Achieving Low-Carbon Transition Silicone production is a typical high-energy process industry, with comprehensive ene

The future silicone market will exhibit three core characteristics: “one dominant player with multiple strong competitors,” chain-style competition, and breakthroughs in high-end segments. The industry is accelerating its shift from scale expansion to quality- and technology-driven growth: 1. “One Dominant, Multiple Strong” Structure Solidifies, Concentration Continues to Rise Hos

As of December 2025, the silicone market is undergoing a critical transition—from prolonged oversupply toward a tight balance, and in some periods even structural tightness. This shift is mainly driven by the following factors: I. Supply Side: Capacity Expansion Slows Sharply, Proactive Production Cuts Become the Norm