SSL Circuit Voltage Control for Dimming and Color

The patent applies parameter changes by utilizing the natural voltage-dependent characteristics of SSL emitters. Instead of complex control circuits, the system varies the operating voltage parameter to achieve dimming and color control. The circuit uses simple voltage division and selection mechanisms that exploit how emitter voltage determines both brightness and color output, transforming a complex control problem into a simple voltage parameter adjustment.

The patent implements self-service by designing circuits that automatically adapt to emitter characteristics without external control signals. The voltage divider networks and selector switches are configured to automatically select appropriate emitters based on the applied voltage level. The system serves itself by using the voltage parameter to simultaneously control both the selection and dimming of emitters, eliminating the need for separate control circuits.

The patent merges the power supply and control functions into a single integrated circuit. The dimming control is not a separate external device but is built into the power circuit itself through voltage divider networks and selector switches. This consolidation eliminates the need for separate control wiring and external dimming devices, reducing both device complexity and installation complexity while maintaining full light output control capability.

The patent creates a universal power circuit that performs multiple functions: power conversion, emitter selection, dimming control, and color temperature adjustment. The same voltage control mechanism that powers the emitters also controls their selection and brightness levels. This multi-functional design eliminates the need for specialized dimming power supplies and reduces system complexity.

The patent segments the SSL emitter array into multiple groups with different voltage requirements and color characteristics. By dividing the emitters into segments that can be independently selected through voltage control, the system achieves efficient light output by activating only the appropriate segments for given conditions. This segmentation allows cost-effective implementation using simple voltage division rather than requiring expensive individual control circuits for each emitter.

The patent uses parameter changes in voltage to simultaneously achieve efficient light output and cost reduction. By varying the operating voltage, the system optimizes which emitters are active and at what brightness levels, maximizing light output efficiency. The same voltage parameter changes that improve efficiency also simplify the control circuitry, reducing system cost compared to approaches requiring separate control electronics for each emitter.