Why I ultimately chose active and dynamic field signaling
My name is Brandon Amalani and I have been running Blushield.com for nearly ten years.
People regularly ask me about passive EMF protection devices and whether they are reliable or effective at protecting biology from man made electromagnetic exposure. That question comes up more now than ever, especially as passive devices have become extremely popular in recent years. I want to be very clear from the beginning that this article is not an attack on anyone or any company. It is an honest attempt to explain what I have learned about physics, biology, and signal behavior after a decade of working directly in this space.
I originally got involved with Blushield after personally exploring many of the options available at the time. Most of what existed were passive EMF devices such as stickers, pendants, resonator chips, cards, and other non powered products. There were also shielding materials, grounding strategies, and constant single frequency generators. I tested all of these myself and spent a lot of time learning where each approach worked and where it clearly did not.
That was about ten years ago. Since then I have worked closely with inventors and researchers in the electro therapy space and continued my education across multiple disciplines including cold plasma technology, photobiomodulation, PEMF system design, cellular biology, nutrition, and herbalism. Having this cross-disciplinary perspective has been critical in helping me understand how the human body functions as an electromagnetic system and how it interfaces with both natural and man made fields.
Over the years I have noticed a shift in how passive EMF devices are discussed and marketed. Many educators and companies have moved away from older language like depolarizing EMF or harmonizing waves, and are beginning to use more nuanced terminology around coherence and biological signaling. That shift is a step in the right direction. However, based on what people share with me and what I continue to observe, there is still a great deal of confusion around the actual physics and biology involved.
There are really three categories worth discussing. The first category is passive EMF devices. These devices have no power source. They claim to harvest ambient electromagnetic radiation and reorganize or modify those fields in a way that reduces biological stress. They often rely on geometry, fractal patterns, holograms, microchips embedded in pendants, or specific material combinations. The second category is active EMF signaling devices. These devices are powered systems that intentionally emit weak structured signals. They do not claim to overpower ambient EMF. Instead they claim to bias biological systems toward more coherent endogenous signaling and improved physiological resilience. The third category is what I would call active and dynamic signaling systems. Blushield falls into this category. It is active because it generates a field using an internal power source. It is dynamic because the signaling changes over time in a coherent way, more closely resembling the constantly shifting electromagnetic environment found in nature.
To be clear, many of the concepts used to justify passive devices are not crazy or unscientific. Electromagnetic fields do have polarization. Geometry can influence how fields interact with materials. Fractal antennas exist in real engineering applications. Metals can couple to radiofrequency energy and act as grounds. Passive objects can scatter or redirect fields locally in the near field. All of that is true. This is why claims like an intentionally designed resonator can reorganize harmful EMFs and make them less biologically stressful sound persuasive on the surface.
The issue is not the concepts themselves. The issue is scale, control, and guarantees.
A passive resonator may produce higher local field intensity at specific frequencies by storing energy temporarily, much like a tuned antenna. However, this is concentration, not amplification in the engineering sense.
Without an internal power source and maintained oscillation, a passive device cannot generate a dominant reference signal or enforce coherent structure across a room-scale environment.
Without power, a device cannot control timing, phase, modulation, or coherence. It is entirely dependent on whatever ambient electromagnetic environment happens to be present at that moment, which is constantly changing. Geometry without power has no authority over signal behavior. Passive devices can respond to fields, but they cannot impose order on them.
Over the years I have had many conversations with inventors working in active electromagnetic systems, including plasma based technologies. One important distinction that comes up repeatedly is that plasma can behave like a fractal antenna because it is an active medium with mobile charge carriers and energy input. That is fundamentally different from static geometry, etched holograms, or water/copper coil circuits which do not maintain oscillation, timing, or coherence on their own.
Fractal antennas are real in engineering. However, they require specific parameters such as tuning to defined frequency ranges, feed points, impedance control, and known boundary conditions. A static hologram etched onto a pendant or card does not dynamically store electromagnetic information, adapt to changing environments, or enforce coherent signaling. It is a constraint, not a reference. Plasma systems can act like fractal antennas because they are active. They contain mobile charge carriers, dynamic oscillation, and energy input. That is a fundamentally different physical system than a static etched interference pattern. Calling both of these fractal antennas is a category error.
One question that always stood out to me was how passive devices claim to cover large areas with no internal power source. Passive devices may slightly alter local coupling when worn on the body. That is plausible. What is not clear is how they could control room-scale fields or guarantee uniform effects across space. If a device truly created a dominant room-scale field, orientation, placement, and surrounding electromagnetic conditions would not matter. In reality, indoor EMF environments are dominated by near field sources such as laptops, phones, routers, and wiring. These signals reflect off walls and floors, creating standing waves and nulls. The result is a highly patchy and inconsistent field landscape. A small passive device only interacts with the local field where it is placed. It cannot average or reorganize an entire room. Its behavior will change depending on proximity to sources, wiring, and the body itself. That tells us the environment is in control, not the device.
Passive devices have no internal timing reference, no phase authority, and no feedback mechanism. A passive microchip or circuit does not qualify as an internal reference because it does not actively maintain timing, state, or phase. Geometry and materials can constrain how a device responds to incoming signals, but they cannot enforce or stabilize a desired signal state. A reference requires actively maintained timing or coherence. Passive systems do not have that capability.
Depolarization is another concept that has been widely misunderstood. Polarization refers to the orientation of the electric field. Coherence refers to phase stability and predictability over time. These are not the same thing. Modern radiofrequency environments are already spectrally complex, weakly polarized, and highly incoherent. Further depolarizing these fields simply adds randomness. It does not restore order. You cannot fix incoherence by adding more noise.
In recent years many companies have used portable EEG devices to demonstrate before and after changes in brain activity. EEG can certainly reflect changes in mental state such as relaxation, attention, novelty, or expectation. It is extremely sensitive to posture, breathing, emotional framing, and context. What EEG cannot demonstrate is environmental EMF control, room-scale field effects, or mechanism of action. EEG does not measure cellular health, gene expression, calcium channel behavior, oxidative stress, or electromagnetic exposure levels. It tells you that a brain state changed, not why it changed. A device worn on the body could plausibly induce a local coupling effect. That does not mean the surrounding environment was altered. Small numerical changes can also appear dramatic depending on visualization choices and color scaling when creating before and after images.
After evaluating many testing approaches, we chose to pursue the most rigorous path available to us. Rather than relying on internal or externally sourced white papers or theoretical models, we conducted an independent review board certified clinical trial in the United States. The results were published in a peer reviewed medical journal. We demonstrated significant changes in VGCC gene expression along with other physiological markers. This type of research is expensive and time consuming, but it aligns with the actual biological mechanisms being discussed.
Biological systems are oscillatory, nonlinear, phase sensitive, timing dependent, and reference driven. This is why natural light cycles, geomagnetic fields, and environmental rhythms are so important to health. Biology does not simply respond to less stimulation. It responds to better organized information. The real question is not whether we can remove all EMF. It is whether we can provide a stable coherent reference that biology can lock onto.
Active and dynamic signaling systems can do this. Passive systems cannot. Powered systems introduce a reference signal with internal timing and structure. That signal behaves consistently across environments. It improves signal to noise at the organism level. Passive systems have no phase authority, no internal timing, and no ability to resist environmental variability. They react to chaos, scatter chaos, and depend on chaos for their function. That is the opposite of what biology needs.
Even mainstream EMF literature points to mechanisms such as VGCC activation, calcium influx, oxidative stress, and redox imbalance. An active coherent field can plausibly bias ion channel behavior, reduce stochastic noise, and support mitochondrial coupling. A passive scatterer cannot target these mechanisms or maintain biological reference states. Passive devices attempt to reorganize biology by harvesting incoherent ambient radiation. Active devices introduce order.
We have been recommending Blushield for years as ones primary source of protection. Recently we introduced another technology that we found to pair perfectly with Blushield as the ultimate EMF protection stack.
First, let’s look at the environment a bit closer.
Modern EMF exposure isn’t just coming from wireless signals in the air. It also comes from the wiring inside our walls. Digital devices, switching power supplies, and LED drivers inject high-frequency transients and sharp voltage edges onto the 50/60 Hz electrical sine wave. That noise doesn’t just stay in the wires, it turns the wiring itself into a secondary source of electromagnetic variability.
Blushield operates in the radiated domain by introducing a low-power, internally timed reference signal that remains stable even as the surrounding RF environment changes. It does not attempt to overpower external sources. Instead, it provides a consistent signal structure that biology can bias toward.
SineTamer works at the electrical layer by reducing high-frequency transients and rapid voltage fluctuations on the building’s wiring. By lowering broadband electrical noise, it reduces the background variability that wiring can radiate into living spaces.
Together, these two approaches address different layers of the same problem: one introduces structured reference signaling, the other reduces injected electrical noise. The result is not “shielding,” but a shift in signal organization and environmental stability.
I genuinely want passive devices to be highly effective. I also want Nikola Tesla’s dream of a small portable device that produces clean energy from ambient energy to be real. But wanting something to be true does not make it physically possible yet. After ten years of experimentation, education, and direct testing, active and dynamic field signaling remains the most plausible approach I have seen for supporting biological resilience in modern electromagnetic environments.
My name is Brandon Amalani and I have been running Blushield.com for nearly ten years.
People regularly ask me about passive EMF protection devices and whether they are reliable or effective at protecting biology from man made electromagnetic exposure. That question comes up more now than ever, especially as passive devices have become extremely popular in recent years. I want to be very clear from the beginning that this article is not an attack on anyone or any company. It is an honest attempt to explain what I have learned about physics, biology, and signal behavior after a decade of working directly in this space.
I originally got involved with Blushield after personally exploring many of the options available at the time. Most of what existed were passive EMF devices such as stickers, pendants, resonator chips, cards, and other non powered products. There were also shielding materials, grounding strategies, and constant single frequency generators. I tested all of these myself and spent a lot of time learning where each approach worked and where it clearly did not.
That was about ten years ago. Since then I have worked closely with inventors and researchers in the electro therapy space and continued my education across multiple disciplines including cold plasma technology, photobiomodulation, PEMF system design, cellular biology, nutrition, and herbalism. Having this cross-disciplinary perspective has been critical in helping me understand how the human body functions as an electromagnetic system and how it interfaces with both natural and man made fields.
Over the years I have noticed a shift in how passive EMF devices are discussed and marketed. Many educators and companies have moved away from older language like depolarizing EMF or harmonizing waves, and are beginning to use more nuanced terminology around coherence and biological signaling. That shift is a step in the right direction. However, based on what people share with me and what I continue to observe, there is still a great deal of confusion around the actual physics and biology involved.
There are really three categories worth discussing. The first category is passive EMF devices. These devices have no power source. They claim to harvest ambient electromagnetic radiation and reorganize or modify those fields in a way that reduces biological stress. They often rely on geometry, fractal patterns, holograms, microchips embedded in pendants, or specific material combinations. The second category is active EMF signaling devices. These devices are powered systems that intentionally emit weak structured signals. They do not claim to overpower ambient EMF. Instead they claim to bias biological systems toward more coherent endogenous signaling and improved physiological resilience. The third category is what I would call active and dynamic signaling systems. Blushield falls into this category. It is active because it generates a field using an internal power source. It is dynamic because the signaling changes over time in a coherent way, more closely resembling the constantly shifting electromagnetic environment found in nature.
To be clear, many of the concepts used to justify passive devices are not crazy or unscientific. Electromagnetic fields do have polarization. Geometry can influence how fields interact with materials. Fractal antennas exist in real engineering applications. Metals can couple to radiofrequency energy and act as grounds. Passive objects can scatter or redirect fields locally in the near field. All of that is true. This is why claims like an intentionally designed resonator can reorganize harmful EMFs and make them less biologically stressful sound persuasive on the surface.
The issue is not the concepts themselves. The issue is scale, control, and guarantees.
A passive resonator may produce higher local field intensity at specific frequencies by storing energy temporarily, much like a tuned antenna. However, this is concentration, not amplification in the engineering sense.
Without an internal power source and maintained oscillation, a passive device cannot generate a dominant reference signal or enforce coherent structure across a room-scale environment.
Without power, a device cannot control timing, phase, modulation, or coherence. It is entirely dependent on whatever ambient electromagnetic environment happens to be present at that moment, which is constantly changing. Geometry without power has no authority over signal behavior. Passive devices can respond to fields, but they cannot impose order on them.
Over the years I have had many conversations with inventors working in active electromagnetic systems, including plasma based technologies. One important distinction that comes up repeatedly is that plasma can behave like a fractal antenna because it is an active medium with mobile charge carriers and energy input. That is fundamentally different from static geometry, etched holograms, or water/copper coil circuits which do not maintain oscillation, timing, or coherence on their own.
Fractal antennas are real in engineering. However, they require specific parameters such as tuning to defined frequency ranges, feed points, impedance control, and known boundary conditions. A static hologram etched onto a pendant or card does not dynamically store electromagnetic information, adapt to changing environments, or enforce coherent signaling. It is a constraint, not a reference. Plasma systems can act like fractal antennas because they are active. They contain mobile charge carriers, dynamic oscillation, and energy input. That is a fundamentally different physical system than a static etched interference pattern. Calling both of these fractal antennas is a category error.
One question that always stood out to me was how passive devices claim to cover large areas with no internal power source. Passive devices may slightly alter local coupling when worn on the body. That is plausible. What is not clear is how they could control room-scale fields or guarantee uniform effects across space. If a device truly created a dominant room-scale field, orientation, placement, and surrounding electromagnetic conditions would not matter. In reality, indoor EMF environments are dominated by near field sources such as laptops, phones, routers, and wiring. These signals reflect off walls and floors, creating standing waves and nulls. The result is a highly patchy and inconsistent field landscape. A small passive device only interacts with the local field where it is placed. It cannot average or reorganize an entire room. Its behavior will change depending on proximity to sources, wiring, and the body itself. That tells us the environment is in control, not the device.
Passive devices have no internal timing reference, no phase authority, and no feedback mechanism. A passive microchip or circuit does not qualify as an internal reference because it does not actively maintain timing, state, or phase. Geometry and materials can constrain how a device responds to incoming signals, but they cannot enforce or stabilize a desired signal state. A reference requires actively maintained timing or coherence. Passive systems do not have that capability.
Depolarization is another concept that has been widely misunderstood. Polarization refers to the orientation of the electric field. Coherence refers to phase stability and predictability over time. These are not the same thing. Modern radiofrequency environments are already spectrally complex, weakly polarized, and highly incoherent. Further depolarizing these fields simply adds randomness. It does not restore order. You cannot fix incoherence by adding more noise.
In recent years many companies have used portable EEG devices to demonstrate before and after changes in brain activity. EEG can certainly reflect changes in mental state such as relaxation, attention, novelty, or expectation. It is extremely sensitive to posture, breathing, emotional framing, and context. What EEG cannot demonstrate is environmental EMF control, room-scale field effects, or mechanism of action. EEG does not measure cellular health, gene expression, calcium channel behavior, oxidative stress, or electromagnetic exposure levels. It tells you that a brain state changed, not why it changed. A device worn on the body could plausibly induce a local coupling effect. That does not mean the surrounding environment was altered. Small numerical changes can also appear dramatic depending on visualization choices and color scaling when creating before and after images.
After evaluating many testing approaches, we chose to pursue the most rigorous path available to us. Rather than relying on internal or externally sourced white papers or theoretical models, we conducted an independent review board certified clinical trial in the United States. The results were published in a peer reviewed medical journal. We demonstrated significant changes in VGCC gene expression along with other physiological markers. This type of research is expensive and time consuming, but it aligns with the actual biological mechanisms being discussed.
Biological systems are oscillatory, nonlinear, phase sensitive, timing dependent, and reference driven. This is why natural light cycles, geomagnetic fields, and environmental rhythms are so important to health. Biology does not simply respond to less stimulation. It responds to better organized information. The real question is not whether we can remove all EMF. It is whether we can provide a stable coherent reference that biology can lock onto.
Active and dynamic signaling systems can do this. Passive systems cannot. Powered systems introduce a reference signal with internal timing and structure. That signal behaves consistently across environments. It improves signal to noise at the organism level. Passive systems have no phase authority, no internal timing, and no ability to resist environmental variability. They react to chaos, scatter chaos, and depend on chaos for their function. That is the opposite of what biology needs.
Even mainstream EMF literature points to mechanisms such as VGCC activation, calcium influx, oxidative stress, and redox imbalance. An active coherent field can plausibly bias ion channel behavior, reduce stochastic noise, and support mitochondrial coupling. A passive scatterer cannot target these mechanisms or maintain biological reference states. Passive devices attempt to reorganize biology by harvesting incoherent ambient radiation. Active devices introduce order.
We have been recommending Blushield for years as ones primary source of protection. Recently we introduced another technology that we found to pair perfectly with Blushield as the ultimate EMF protection stack.
First, let’s look at the environment a bit closer.
Modern EMF exposure isn’t just coming from wireless signals in the air. It also comes from the wiring inside our walls. Digital devices, switching power supplies, and LED drivers inject high-frequency transients and sharp voltage edges onto the 50/60 Hz electrical sine wave. That noise doesn’t just stay in the wires, it turns the wiring itself into a secondary source of electromagnetic variability.
Blushield operates in the radiated domain by introducing a low-power, internally timed reference signal that remains stable even as the surrounding RF environment changes. It does not attempt to overpower external sources. Instead, it provides a consistent signal structure that biology can bias toward.
SineTamer works at the electrical layer by reducing high-frequency transients and rapid voltage fluctuations on the building’s wiring. By lowering broadband electrical noise, it reduces the background variability that wiring can radiate into living spaces.
Together, these two approaches address different layers of the same problem: one introduces structured reference signaling, the other reduces injected electrical noise. The result is not “shielding,” but a shift in signal organization and environmental stability.
I genuinely want passive devices to be highly effective. I also want Nikola Tesla’s dream of a small portable device that produces clean energy from ambient energy to be real. But wanting something to be true does not make it physically possible yet. After ten years of experimentation, education, and direct testing, active and dynamic field signaling remains the most plausible approach I have seen for supporting biological resilience in modern electromagnetic environments.