The Hologram Master Origination works on the principle of sending light beams which can be broken and sent using lenses at a number of angles to create an interference pattern which is recorded in the form of an image over a glass plate. This artifact, made with a nickel mould, plays an important role during the making of holograms. The creation of holographic pictures helps masters counter product counterfeiting. By amplifying light beams and applying lenses, we produce an individual combination of interference-type security features on the glass plate. These features, which are both 2D and 3D holograms, are highly instrumental in preventing counterfeiting attempts. The hologram creation offers a genuine set of security features, including images produced by laser optical recording, dot-matrix holograms created by innumerable grating dots at various angles, and true color holograms created by photographic techniques. In addition, nickel molds are a protective feature in the hologram creation process.

Holographic master origination Holographic master origination is the process of creating a nickel master in a master origination laboratory using a master shooting system (2D/3D, Dot-matrix, or e-beam) and filtered laser technology, advanced laser optics, and photosensitive glass. Origination is a nickel mould that plays a critical role in hologram production in defending against product counterfeiting. Kiran Holographics is the best hologram master origination manufacturer.

Dynamic holography is an exciting and evolving field within holography that focuses on creating holographic images and displays that are not static but change or animate when viewed. These holograms are characterized by their ability to provide viewers with a sense of motion, depth, and interactivity, making them invaluable for a wide range of applications, from art and entertainment to scientific visualization and advertising.

Named after the French physicist Augustin-Jean Fresnel, these holograms use a simplified diffraction pattern to create 3D images. They are more compact and thinner than traditional holograms, making them suitable for applications where space is limited, like automotive head-up displays and augmented reality glasses.

Multi-plane holograms use multiple planes or depths within the same holographic image. This creates a layered effect, allowing viewers to see different aspects of the scene from various angles. These holograms are used in art and interactive displays for their depth and complexity.

Computer-Generated Holograms are designed using computer algorithms and can be used for a wide range of applications, including optical components, 3D displays, and holographic microscopy.