1. Non-Hertzian nature: Unlike conventional electromagnetic waves like radio waves or microwaves, scalar waves are characterized as "non-Hertzian", meaning they do not travel through space in the same oscillating sinusoidal pattern1. Instead, scalar waves are described as standing waves that exist as stationary patterns of energy (1).
2. Zero frequency: Scalar waves are believed to have zero frequency, meaning they do not oscillate in the traditional sense (1). This property is thought to allow scalar waves to transcend the constraints of space and time.
3. Non-local interactions: Scalar waves are often linked to the concept of "non-locality" in quantum physics, meaning they are believed to act instantaneously at a distance, defying the speed of light and the limitations of relativity (1).
4. Potential healing properties: Some proponents claim scalar waves can have beneficial therapeutic effects on the human body, such as reducing stress, enhancing cellular communication, and supporting the immune system (1) (3) ( 4). However, the scientific evidence supporting these claims is still limited and inconclusive.
5. Wireless energy transmission: One of Nikola Tesla's key experiments with scalar waves involved the wireless transmission of electromagnetic energy over long distances, suggesting the potential for wireless power applications (1). This concept remains largely unrealized.
6. Controversies and skepticism: The unique properties attributed to scalar waves have faced significant skepticism and controversy within the scientific community, as many of the claims lack robust empirical evidence and rigorous scientific validation (1).

In summary, scalar wave technology is fundamentally different from other forms of energy technology in its non-Hertzian nature, zero frequency, non-local interactions, and the controversial claims about its potential therapeutic and energy transmission applications. The scientific basis for these unique properties is still a subject of ongoing debate and research.