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INTRODUCTION
Theoretically, plasma weapons attack with ionised gas or plasma as their main technique. Atoms stripped of their electrons and left with merely charged particles that are extremely reactive and can be controlled by powerful magnetic fields make up plasma, a high-energy state of matter.
Plasma weapons have the capacity to create an intense beam of charged particles that is highly focused and capable of doing severe harm to its targets. However, no military or law enforcement organisation currently employs plasma weapons, and the science required to make them is still in its infancy.
It’s important to note that while welding and cutting are both industrial uses for plasma, these tools are not regarded as plasma weapons.
GLOBAL PLASMA WEAPONS MARKET SIZE AND FORECAST
The Global Plasma Weapons Market accounted for $XX Billion in 2022 and is anticipated to reach $XX Billion by 2030, registering a CAGR of XX% from 2023 to 2030.
RECENT DEVELOPMENT
The Multiplas Rifle is a powerful multi-projectile Plasma Rifle, much like the Tri-Beam Laser Rifle. Each shot shoots three projectiles and causes 35 damage.
Although it lacks the critical stats of its Tri-Beam rival, this weapon is far more reliable for most builds due to its higher base damage. The Multiplas Rifle is an extremely potent weapon thanks to its precise projectile dispersion and excellent damage.
NEW PRODUCT LAUNCH
Researchers at the Centre for Nanoscale Materials at Argonne National Laboratory and the U.S. Army Research Laboratory claim to have created a new class of plasma-treated aluminum nanoparticles that have the potential to dramatically enhance future explosive weapon systems.
Army experts claim that a combination of unique aluminum nanoparticles that have undergone plasma treatment can greatly increase the explosive force of conventional bombs.
Long before the advent of revolutionary aluminum nanoparticles, scientists expected that the energetic performance and detonation velocity of explosive weapons would be greatly improved.
Aluminum nanoparticles can generate extremely hot reactions due to their large surface areas relative to their entire volume. Due to this combination, small particles of matter can produce a lot of energy and burn quickly.
However, the air naturally oxidizes the surface of aluminum nanoparticles, creating a thick alumina shell that generally accounts for 20% of its weight. Natural oxidation serves as a barrier to the reaction of aluminum with an explosive, reducing nanoparticle energy content and slowing the rate of energy release.
COMPANY PROFILE
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