What beam shaping principles and terminology are relevant for PRIME Shaper devices?

PRIME Shaper designs rely on energy-conserving beam mapping between input and output irradiance distributions under geometrical optics, typically described by ray-mapping functions and aspheric phase profiles. Key terms include top-hat uniformity (e.g., ±5% across the flat region), working distance (distance from the shaper where the target profile forms), telecentricity or divergence control, and input beam parameters such as M², waist diameter, and input numerical aperture.

What common PRIME Shaper variants exist and how do they differ?

Typical variants include collimated-input top-hat shapers, focusing-output shapers that directly generate a uniform spot at a focus, and versions optimized for specific wavelength ranges (e.g., 355 nm, 532 nm, 1064 nm). Some models are designed for single-mode beams with low M² and tight diameter tolerances, while others accommodate multimode or fiber-delivered beams with relaxed coherence but specified input beam diameter and divergence windows.

Which optical and mechanical parameters are most important when selecting a PRIME Shaper?

Critical parameters include supported wavelength band (coating and glass transmission), allowable input beam diameter and M² range, top-hat uniformity specification, and the nominal working distance or divergence of the shaped beam. Mechanically, you should consider clear aperture, input/output interface (threaded mount, cage compatibility), environmental robustness, and allowable input power density or pulse energy to avoid damage.

How should I compare PRIME Shaper products for a specific application like micromachining or materials processing?

For micromachining, compare the resulting spot size and uniformity at your processing plane, the tolerance to input beam misalignment, and the power handling capability at your operating wavelength and pulse regime (CW vs. ns/ps/fs). Also check how sensitive the output profile is to changes in input beam diameter and pointing, and whether the shaper is compatible with your existing focusing optics and working distance constraints.

What are typical lead times and customization options for PRIME Shaper products, and what drives pricing?

Standard PRIME Shaper models with common wavelengths and apertures often have lead times on the order of a few weeks, while custom wavelengths, apertures, or output profiles can extend this to several months due to design and tooling. Pricing is primarily driven by design complexity (custom mapping, tight uniformity specs), substrate material and coatings, aperture size, and required certification or environmental qualification.

How can I find, compare, and request quotes for PRIME Shaper products on FindLight without creating an account?

On FindLight, navigate to Optical Systems → Beam Shapers → PRIME Shaper to view all available models, then use on-page filters (wavelength, aperture, beam type, manufacturer) and specification tables to compare key parameters side by side. From each product page you can submit a quote or information request directly to the supplier using the contact form without registration; your technical requirements and application details can be entered in the message field to receive a targeted response.

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PRIME Shaper solutions for uniform laser profiles

LOD Beam Flattner

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Sold by: Logan Optical Designs (LOD) Ships from: United States

Specifications
Image Shape:	Circular
Clear Aperture (H):	12.5 mm
Clear Aperture (W):	12.5 mm
Height:	12.5 mm
Width:	12.5 mm

Did You Know?

PRIME stands for Psuedo Random Intensity Mapping Element. It uses a unique free-form direct-write process to fabricate a highly non-uniform surface in fused silica. PRIME beamshapers are designed to transmit a well-defined and controlled divergence angle with potential transmission efficiencies of 99%. The target applications for this technology are high-power materials processing, such as welding, brazing, cladding, and metal polishing, and pump beam homogenization. The system allows for a dramatic increase in beam uniformity, high power handling, high laser damage threshold, and no focal plane shift, among many other benefits.

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Frequently Asked Questions

A PRIME Shaper is a refractive beam shaper that converts a Gaussian or multimode input profile into a well-defined output distribution, typically a flat-top (top-hat) or other tailored intensity pattern, while preserving beam coherence. It uses precisely engineered aspheric surfaces in a multi-element layout to redistribute optical power without introducing significant diffraction artifacts, allowing high-quality, uniform illumination at a defined working distance.

What is a PRIME Shaper?

A PRIME Shaper is a refractive beam shaping optic that converts a Gaussian or non-uniform laser beam into a well-defined, typically flat-top (top-hat) intensity profile. PRIME Shaper modules are usually transmissive, using aspheric or freeform surfaces to preserve beam direction while redistributing energy across the beam cross-section. This enables tighter process control in micromachining, materials processing, and imaging systems.

Typical PRIME Shaper specifications

On FindLight, PRIME Shaper products are offered for a range of wavelengths and beam parameters. Key specifications include:

Wavelength range: Commonly from 355 nm to 1,080 nm or 1,064 nm, with variants for UV, visible, and NIR lasers.
Input beam type: Designed for TEM₀₀ Gaussian beams; some PRIME Shaper models tolerate multimode inputs with specified M².
Input beam diameter: Typically a few millimeters (e.g., 2–10 mm 1/e²), with tolerance windows around the nominal diameter.
Output profile: Flat-top (top-hat), sometimes with adjustable or defined spot size at a working distance or image plane.
Transmission and coatings: AR coatings tailored to the design wavelength, with high transmission to handle industrial laser powers.
Power handling: Specified for CW power density or pulsed peak fluence; essential for high-power laser applications.
Working distance and depth of field: Defines where the PRIME Shaper delivers the designed profile and how tolerant it is to axial misalignment.

Use cases for PRIME Shaper modules

PRIME Shaper beam shapers are used in laser micromachining, scribing, welding, surface texturing, additive manufacturing, and thin-film processing where uniform energy deposition is critical. In R&D, a PRIME Shaper can improve repeatability in exposure, pump-probe experiments, and laser-induced damage studies by providing a controlled, non-Gaussian profile.

Buyer guidance on FindLight

When selecting a PRIME Shaper, compare the design wavelength, supported input beam diameter, M² tolerance, and required flat-top quality for your process. Check power or fluence limits against your laser parameters and verify mechanical interface and mounting options for your optical system. On FindLight, you can review detailed datasheets for each PRIME Shaper, compare specifications across vendors, and request quotes directly from manufacturers without registration. This allows procurement engineers and R&D teams to quickly identify a PRIME Shaper solution that matches their existing laser sources and process requirements.