Driven by the dual impetus of the Dual Carbon Goals and northern clean heating policies, electric heating has gradually evolved from an auxiliary heating method to one of the mainstream market options, thanks to its easy installation, eco-friendly operation and precise temperature control. The application scenarios of electric heating keep expanding, ranging from household wall-mounted electric heating boilers and high-power commercial electric boilers to urban residential renovation and rural clean heating projects, accompanied by steady growth of the industry scale. Nevertheless, amid rapid development, long-standing drawbacks of traditional electric heating equipment including power attenuation, limescale accumulation and inadequate safety protection have restricted high-quality industrial development and become major concerns for end users and engineering contractors.

Against the general trend of global clean energy transition, distributed photovoltaics are gaining increasingly wide popularity. Policies including domestic rural photovoltaic promotion and county-wide PV rollout programs, as well as household photovoltaic demand in emerging overseas markets, have continuously diversified application scenarios for solar energy. For a long time, photovoltaic power generation has mainly relied on grid-connected power supply, which is confronted with practical challenges such as high grid-connection thresholds, expensive energy storage costs, and photovoltaic curtailment. How to consume photovoltaic power more efficiently at lower costs has become a shared exploration direction for the industry. The emergence of PV direct-driven hot water technology offers a cost-effective new approach for local consumption of distributed photovoltaic power and brings new development opportunities for clean energy hot water solutions.

Against the general trend of global clean energy transition, distributed photovoltaics are gaining increasingly wide popularity. Policies including domestic rural photovoltaic promotion and county-wide PV rollout programs, as well as household photovoltaic demand in emerging overseas markets, have continuously diversified application scenarios for solar energy. For a long time, photovoltaic power generation has mainly relied on grid-connected power supply, which is confronted with practical challenges such as high grid-connection thresholds, expensive energy storage costs, and photovoltaic curtailment. How to consume photovoltaic power more efficiently at lower costs has become a shared exploration direction for the industry. The emergence of PV direct-driven hot water technology offers a cost-effective new approach for local consumption of distributed photovoltaic power and brings new development opportunities for clean energy hot water solutions.