Selectable Magnetic Pulse Shaping for Low-Energy Nerve Stimulation

The patent applies dynamics by making the pulse shape adaptive rather than fixed. The control unit dynamically adjusts the time profile of current pulses based on stored pulse shapes, allowing optimization of energy efficiency while maintaining stimulation effectiveness. This resolves the contradiction by enabling the system to adapt pulse characteristics to minimize energy consumption while achieving reliable nerve stimulation.

The patent changes physical parameters by storing multiple pulse shapes with different time profiles and selecting optimal ones for specific nerve cell types. By varying the temporal characteristics of current pulses (parameter changes), the system achieves effective stimulation with reduced field energy consumption, resolving the contradiction between stimulation reliability and energy efficiency.

The patent segments the pulse generation function by storing multiple pre-defined pulse shapes in memory, each optimized for different nerve cell types. Instead of using a single resonant circuit configuration, the system divides the solution into discrete, selectable pulse profiles. This segmentation allows adaptability to different cell types while keeping the hardware architecture relatively simple.

The patent uses copying by storing digital representations (copies) of optimal pulse shapes in memory. Rather than implementing complex hardware circuits for each pulse type, the system creates and stores copies of optimized waveforms, then retrieves and applies the appropriate copy based on the target nerve cell type. This approach achieves high adaptability with minimal additional hardware complexity.

The patent applies preliminary action by pre-calculating and storing optimized pulse shapes that minimize energy loss and heat generation. Before actual stimulation, the control unit selects the appropriate pre-optimized pulse profile from memory, ensuring that the current pulses are shaped to achieve necessary field strength with minimal power consumption and heat generation, preventing coil overheating.

The patent converts the harmful effect of energy loss into benefit by optimizing pulse shapes to minimize resistive heating in the coil. The stored pulse profiles are designed to deliver necessary stimulation power while reducing the portion of energy that would be wasted as heat. This transforms the energy efficiency problem into an opportunity to reduce coil temperature and enable safer, more sustainable operation.