SERVICE
BUSINESS AREA
MLPE
Patented current control series-parallel technology. Method: Our internationally patented technology stands apart from voltage control and bypass approaches.
Each MLPE unit, connecting two panels, employs a sophisticated series-parallel switching matrix to regulate current flow. By monitoring real-time current output (e.g., 2 A to 10 A per panel), it adjusts configurations to stabilize energy delivery to the inverter, independent of voltage adjustments or bypassing underperforming units.
These efficiency and cost benefits set us apart from competitors by eliminating costly voltage adjustment components
PCS
String inverters typically outlast central inverters in replacement cycles. They manage a single string (panels connected in series), with maximum voltage now increased from 1,000 V to 1,500 V, enhancing panel output utilization.
Handling less power reduces heat and mechanical stress.
Individual failures minimally affect the system, offering greater replacement timing flexibility.
Their distributed design simplifies maintenance and enables swift replacement if needed.
Hybrid Inverter
The SUNGUIDE hybrid inverter likely offers a longer replacement cycle than traditional string and central inverters.
Traditional string inverters face high input power variability from panel mismatches or shading, stressing components like capacitors and IGBTs.
MLPE-equipped systems optimize each panel’s output, delivering a consistent DC input to the inverter, potentially extending its lifespan. Panel-level monitoring in MLPE systems simplifies diagnostics and maintenance, unlike traditional string inverters, which suffer performance degradation across entire strings, requiring more frequent upkeep.
10CM
10CM
By operating a fishing rod, adjusting the length of a vertical support, or controlling rotational speed, the bird prevention system utilizing the drive control device of Power Source Patent No. 10-2617964 detects bird approaches and assesses the situation. Based on this assessment, it activates the vertical support to effectively block bird access. During a bird’s approach, the vertical support is minimized, and the horizontal support is equipped with a spring to act as a buffer, allowing movement within a certain range even if a bird collides with the thin fishing line. This system reduces the left-right repetition cycle and protects birds, featuring grooves spaced at regular intervals to connect one or more thin lines in the horizontal direction, forming multiple lines. Notably, the technology of the vertical and horizontal supports is a simple, foundational innovation that cannot be imitated.
AIRPORT,
SOLAR POWER
Existing technologies utilize devices such as sound wave systems, laser guns, and thermal imaging cameras to conduct 24-hour bird deterrence operations. Until now, these technologies have employed indirect methods to repel flying birds, but our technology directly repels them by impacting their legs or wings. A 10cm bird collision poses a serious threat to aviation safety, with approximately 13,000 incidents occurring annually in the United States alone. During aircraft takeoff and landing, when the 10cm system is operational, birds cannot even enter the grassy areas, and escaping is equally difficult.
Algorithm
**Launching This July 2025!**
08215 B-301, 51 Gyeongin-ro 55-gil, Guro-gu, Seoul, Republic of Korea
timerobot@naver.com
