Handheld Electrical Stimulator with Programmable Waveform Control

The patent implements dynamic control of electrical current parameters including adjustable amplitude, frequency, and waveform types (sine, square, triangle). The processor dynamically modifies these parameters based on treatment requirements and user feedback, enabling precise control while maintaining a relatively simple device architecture through software-based control rather than complex hardware circuits.

The system changes multiple electrical parameters simultaneously (amplitude, frequency, duty cycle, waveform) to achieve precise treatment effects. The processor receives feedback signals and adjusts these parameters in real-time, allowing fine-grained control of the electrical current delivery without requiring complex analog control circuitry.

The device performs self-diagnosis and self-adjustment through the feedback mechanism. The processor automatically detects treatment effectiveness via feedback signals from the object and autonomously modifies current parameters without external intervention. This automation improves treatment precision while the integrated design keeps the added complexity manageable.

The patent incorporates a feedback loop where the processor receives signals from the treated object (such as electrical impedance changes or physiological responses) and uses this information to automatically adjust current delivery parameters. This closed-loop control enables precise, adaptive treatment while consolidating control functions in a single processor unit rather than requiring multiple separate control mechanisms.

The patent integrates multiple treatment modalities (electrical current stimulation, vibration, and light emission) into a single handheld device that can perform all functions using a common processor and power source. This multi-functional design improves treatment effectiveness by combining complementary therapies while sharing structural components to minimize the increase in overall device complexity.

The system merges control of different therapeutic functions into a unified processor that coordinates electrical current, vibration motor, and light emitter operations. The processor manages all functions through a single control architecture and shared feedback mechanism, allowing combined treatment effects while avoiding the complexity of separate independent control systems for each function.