Holographic sight

Typical Application Scenarios
1. Military and Counter-Terrorism
• Dynamic Combat Situations: Suitable for high-speed mobile scenarios such as urban warfare, beach
landing, and airborne operations, supporting rapid aiming at targets within a direct line of sight up to 3
kilometers.
• Field Validation: In a recent military exercise, a squad equipped with holographic sights achieved “every
shot a bullseye” during vehicle-mounted mobile shooting, increasing fire suppression efficiency by 40%.
2. Law Enforcement and Public Safety
•SWAT Close-Quarters Operations: In high-pressure scenarios such as hostage rescue and indoor raids,
the reticle allows rapid target acquisition, improving shooting accuracy and reaction speed.
•Maritime Law Enforcement: Adapted to the rocking environment of boats, ensuring precise shooting on
unstable platforms, effectively enhancing the success rate of law enforcement missions.
3. Civilian and Competitive Use
•Shooting Sports: Supports Olympic shooting events, military simulation training, and other scenarios,
meeting the high-precision demands of fast-moving target tracking.
•Hunting Applications: The reticle stability outperforms traditional high-magnification scopes during target
tracking in motion, aiding accurate hunting

What is a holographic sight?
Core Principle: Laser Holographic Imaging
It uses the principles of laser interference and diffraction, employing a
highly coherent laser as the light source. The laser is collimated into
parallel light by a concave mirror and projected onto the holographic reticle,
diffracting the reticle’s image into the viewer’s eye. The image appears at
infinity. To reduce the influence of temperature on the aiming point, a
holographic grating is added in the optical path for compensation

 

 

 

 

 

 

 

 

 

 

 

Core Difference from Red Dot Sights
Red Dot Sight: Forms a virtual image using a reflected LED dot, which has
parallax.
Holographic Sight: Projects a laser-diffracted image perceived at infinity,
with almost no parallax and higher accuracy.

Core Optical Path Analysis: What is Holography?

Step 1 – Recording:
When the reference light directly illuminates the recording material and
interferes with the object light reflected from the object, an interference
pattern of alternating light and dark fringes is formed. The phase
information of the object is encoded in the spacing, shape, and distribution
of these interference fringes

Step 2 – Reconstruction:
When the reference light illuminates the recorded material, part of the light
is diffracted at specific angles. These diffracted rays propagate in
directions consistent with the original object-reflected light, thereby
reconstructing a three-dimensional image of the object at a specific spatial
location

Analysis of the Core Optical Path

01. Laser Emission
An internal laser diode generates a highly coherent and stable laser light
source.
02. Beam Collimation
The beam direction is adjusted by a mirror and then collimated into
parallel light using a concave mirror.
03. Holographic Diffraction
The parallel light illuminates the holographic grating, where diffraction
occurs, directing the diffracted light toward the holographic reticle.
04. Image Reconstruction
The diffracted light enters the human eye, allowing the reticle image to be
perceived at infinity

Key Component Overview

Laser Diode
The “heart” of the system, providing a stable and
highly coherent laser light source.

Holographic Grating
A core optical component that diffracts collimated
light onto the holographic reticle. Used together
with the reticle to compensate for thermal drift.

Collimating Mirror
Typically a concave mirror, responsible for
collimating the laser beam into parallel light.

Optical Holographic Reticle
A core component that diffracts the incoming
collimated laser into the reticle image perceived by
the human eye.

Electronics (Control Unit)
Controls laser brightness, power management,
and automatic shutdown to ensure stable
operation.

Product Specifications

Window Parameters