The defense industry is collective prey to spec-sheet hypnosis. Every May, defense contractors descend upon Tampa for SOF Week, eager to showcase incremental increases in wattage as if adding raw power solves fundamentally flawed tactical doctrines. This year, the spotlight falls on B.E. Meyers & Co. and their debut of the VSLAP-V1 near-infrared targeting laser and illuminator. The marketing copy practically writes itself: a sleek, 9.45-ounce chassis emitting up to 1.21 Watts of power across six co-aligned diodes. They call it "DeathStar" technology.
It sounds formidable. It sounds high-tech. It is also an absolute death sentence on a modern, peer-contested battlefield.
I have watched acquisition officers flush millions down the drain on high-output active emitters because they are still fighting the last war. For two decades of asymmetric counter-insurgency, American and allied special operations forces owned the night. In Iraq and Afghanistan, turning on an 840nm infrared pointer was a safe bet; the enemy did not have the technology to see it. But the era of the uncontested infrared spectrum is over. Buying a 1.21-Watt Class 4 laser in the current threat environment is the equivalent of lighting a signal flare in a dark room and hoping nobody looks your way.
The Near-Infrared Delusion
The foundational argument for devices like the VSLAP-V1 is that Joint Terminal Attack Controllers (JTACs) and Combat Control Teams (CCTs) need immense power to signal high-altitude aircraft. The line of thinking goes: more wattage equals a larger, more visible beam profile downrange, easing air-to-ground integration.
This line of reasoning ignores the reality of near-peer electronic and optical warfare.
Near-infrared (NIR) light at 840nm is not invisible. It is merely invisible to the naked human eye. To any adversary equipped with standard, commercially available digital sensors, Gen 2+ or Gen 3 image intensifiers, or low-cost drone-mounted cameras, a 1.21-Watt laser looks like a lightsaber extending directly back to the operator's position.
Consider the physics of beam divergence and scattering. The VSLAP-V1 tightens down to a minimum point of 0.8 milliradians ($0.46^\circ$). When you pump over a full Watt of energy through that tight of a column, you are not just illuminating the target. You are creating a massive atmospheric backscatter effect. Particles in the air—dust, humidity, smoke—reflect that light.
Imagine a scenario where a tactical air control party attempts to mark a target from a concealed position. The moment that fire button is depressed, every cheap commercial drone patrolling the woodline registers a massive spike in the 840nm band. The operator has effectively traded a momentary target confirmation for an immediate, high-precision artillery or loitering munition strike on their own coordinate.
The Mirage of Single-Handed Ergonomics
The promotional material for the VSLAP-V1 places a heavy emphasis on its mechanical refinement. A one-eighth turn of the front collar shifts the beam from a pointer to a 2.5-degree flood. A thumb-operated power lever cycles through Low (125mW), Medium (375mW), and High (1.21W). There are pulse settings at 2Hz, 5Hz, 10Hz, and an arrhythmic mode.
This is spectacular engineering addressing the wrong problem.
The industry loves to obsess over tactile switch placement and proprietary connections like the Wakizashi port, which allows for remote control and power supply integration on crew-served weapons or rotary-wing platforms. These features make the device highly usable, but they do nothing to address the systemic vulnerability of active emissions.
When a manufacturer boasts about an "unmistakable arrhythmic setting," they are trying to trick the human eye or basic tracking algorithms into separating the strobe from background noise. It does not work against modern digital signatures. Automated multi-spectrum optical tracking systems do not care about rhythm; they care about photons. And 1.21 Watts represents a torrent of photons.
We are watching a classic industry trap: perfecting the ergonomics of an obsolescent modality.
The Multi-Diode Complication
Let's look at the mechanical guts of the "DeathStar" system. Co-aligning six individual laser diodes to mimic a single, high-profile beam profile over long distances is an elegant way to bypass the physics limitations of single-diode degradation.
But structural elegance introduces mechanical fragility.
Maintaining precise alignment across six separate semi-conductor paths under the violent, multi-directional recoil profiles of crew-served weapons or the high-frequency vibrations of a rotary-wing cabin is an uphill battle. The spec sheet states the system meets MIL-STD 810G/H and is waterproof down to 20 meters. That speaks to environmental sealing, not the long-term calibration stability of a multi-diode array subjected to thousands of rounds of .50 BPD or 7.62mm recoil.
If one diode drifts out of alignment due to thermal expansion or mechanical shock, your clean 0.8 mrad beam geometry is ruined. You get beam blooming, erratic scattering, and a significant drop in effective energy on target. You have added six points of failure to a component that demands absolute reliability.
Redefining the Target Marking Question
The defense acquisition pipeline keeps asking: How do we make our infrared pointers more powerful so planes can see them better?
The correct question is: Why are we still using active optical identifiers that compromise our positions in a contested spectrum?
The answer lies in moving away from active NIR emission entirely, or at least restricting it to emergency, short-duration applications. The modern solution to air-to-ground integration is not brighter flashlights; it is passive digital coordination and out-of-band signaling.
- Digital Data Links: Target handoff should occur via encrypted tactical data networks like Link 16 or Advanced Target Architecture software, passing digital coordinate matrices directly to the aircraft's flight management system.
- Short-Wave Infrared (SWIR): If optical marking is non-negotiable, the industry must transition fully to the SWIR band (typically 1064nm to 1550nm). Standard Gen 3 night vision goggles cannot see SWIR, meaning an adversary using standard night-vision optics remains blind to the beam, requiring specialized, expensive InGaAs (Indium Gallium Arsenide) cameras to detect it.
The VSLAP-V1 operates firmly in the 840nm near-infrared band. It is a frequency chosen because allied forces already have millions of legacy NVGs tuned to it. It is a concession to legacy inventory at the expense of survivability.
The High-Power Cost
There is an undeniable downside to abandoning these ultra-high-power NIR systems. Relying solely on passive digital networks requires robust, jam-resistant satellite and line-of-sight data links. When the electronic warfare environment gets so thick that GPS is denied and data networks are suppressed, a physical beam of light is the ultimate fail-safe.
But recognizing a tool as a desperation-stage fail-safe is vastly different from celebrating it as a flagship advancement.
The VSLAP-V1 will undoubtedly find a home on various weapon mounts and within specific deployment units because its lineage tracks back to the ubiquitous IZLID series. It fits cleanly into existing doctrine. It satisfies the bureaucratic desire for tangible hardware updates.
But do not mistake a brighter laser for an unfair advantage. In a near-peer conflict, the operator who shines the brightest light is simply the easiest target to find.
