This article presents a novel digital non-Foster-inspired electronics approach for broadband impedance matching, achieving five-fold bandwidth enhancement compared to conventional analog non-Foster matching. The method uses a subwavelength acoustic transducer and demonstrates long-distance transmission over airborne acoustic channels with a three-order-of-magnitude increase in power level. The proposed system offers convenient reconfigurability and real-time tunability, overcoming the limitations of analog non-Foster circuits in terms of tunability, stability, and power handling. The digital non-Foster-inspired electronics enable arbitrary frequency dispersion (FD) and real-time control of equivalent negative resistance, inductance, or capacitance. The system uses a self-adaptive proportional-resonant (PR) controller to ensure excellent transient response and real-time tunability. The implementation provides a viable solution for enhancing the bandwidth of sub-wavelength resonance-based systems, extending to the electromagnetic domain. The results show that the proposed digital non-Foster electronics offer flexibly engineered FD, enhancing the operation bandwidth by over five times compared to a matching network based on analog non-Foster electronics. The system was tested for long-haul image transmission over airborne acoustic channels, validating its stability, flexibility, and real-time tunability. The digital non-Foster-inspired electronics overcome the inherent instabilities of non-Foster circuits by ensuring that the poles of the characteristic equation remain in the stable portion of the complex plane for a wide range of control parameters. The system also provides a leap forward in power levels compared to analog non-Foster circuits. The implementation demonstrates the potential for practical applications in airborne and underwater acoustic radiators. The study highlights the advantages of digital non-Foster-inspired electronics in terms of reconfigurability, real-time tunability, and stability, making them suitable for a wide range of applications in resonance-based systems.This article presents a novel digital non-Foster-inspired electronics approach for broadband impedance matching, achieving five-fold bandwidth enhancement compared to conventional analog non-Foster matching. The method uses a subwavelength acoustic transducer and demonstrates long-distance transmission over airborne acoustic channels with a three-order-of-magnitude increase in power level. The proposed system offers convenient reconfigurability and real-time tunability, overcoming the limitations of analog non-Foster circuits in terms of tunability, stability, and power handling. The digital non-Foster-inspired electronics enable arbitrary frequency dispersion (FD) and real-time control of equivalent negative resistance, inductance, or capacitance. The system uses a self-adaptive proportional-resonant (PR) controller to ensure excellent transient response and real-time tunability. The implementation provides a viable solution for enhancing the bandwidth of sub-wavelength resonance-based systems, extending to the electromagnetic domain. The results show that the proposed digital non-Foster electronics offer flexibly engineered FD, enhancing the operation bandwidth by over five times compared to a matching network based on analog non-Foster electronics. The system was tested for long-haul image transmission over airborne acoustic channels, validating its stability, flexibility, and real-time tunability. The digital non-Foster-inspired electronics overcome the inherent instabilities of non-Foster circuits by ensuring that the poles of the characteristic equation remain in the stable portion of the complex plane for a wide range of control parameters. The system also provides a leap forward in power levels compared to analog non-Foster circuits. The implementation demonstrates the potential for practical applications in airborne and underwater acoustic radiators. The study highlights the advantages of digital non-Foster-inspired electronics in terms of reconfigurability, real-time tunability, and stability, making them suitable for a wide range of applications in resonance-based systems.