QE95 QE95LP-H-MB
1. Modular Concept to Increase Your Probe's Power, 2 Different Cooling Modules 2. Oversized Aperture, Clear Aperture 95mm
Save to Favorites
Overview
Specifications
| Parameter | Value |
|---|---|
| Maximum Repetition Frequency | 40 Hz |
| Effective Aperture [Device Itself] | 95 mm Ø |
| Effective Aperture [With Attenuator] | 90 mm Ø |
| Spectral Range [Device Itself] | 0.19-20 µm |
| Spectral Range [Attenuator] | 0.3-2.1 µm |
| Maximum Measurable Energy [1064 nm, 150 µs, Single Shot; Device Itself] | 35 J |
| Maximum Measurable Energy [1064 nm, 150 µs, Single Shot; Attenuator] | 250 J |
| Maximum Measurable Energy [1064 nm, 7 ns, 10 Hz; Device Itself] | 35 J |
| Maximum Measurable Energy [1064 nm, 7 ns, 10 Hz; Attenuator] | 150 J |
| Maximum Measurable Energy [266 nm, 7 ns, 10 Hz; Device Itself] | 30 J |
| Maximum Measurable Energy [266 nm, 7 ns, 10 Hz; Attenuator] | 50 J |
| Noise-Equivalent Energy | 15 µJ |
| Sensitivity | 2 V/J |
| Maximum Pulse Width [Typical] | 1.5 ms |
| Rise Time [Typical; 0-100%] | 2 ms |
| Calibration uncertainty | ±3% |
| Repeatability | <0.5% |
| Maximum Average Power [All Wavelengths; Device Itself] | 40 W |
| Maximum Average Power [All Wavelengths; Attenuator] | 90 W |
| Maximum energy density [1064 nm, 150 µs, 10 Hz; Device Itself] | 1.2 J/cm² |
| Maximum energy density [1064 nm, 150 µs, 10 Hz; Attenuator] | 14 J/cm² |
| Maximum energy density [1064 nm, 7 ns, Single Shot; Device Itself] | 0.6 J/cm² |
| Maximum energy density [1064 nm, 7 ns, Single Shot; Attenuator] | 16 J/cm² |
| Maximum energy density [1064 nm, 7 ns, 10 Hz; Device Itself] | 0.6 J/cm² |
| Maximum energy density [1064 nm, 7 ns, 10 Hz; Attenuator] | 8 J/cm² |
| Maximum energy density [532 nm, 7 ns, 10 Hz; Device Itself] | 0.6 J/cm² |
| Maximum energy density [532 nm, 7 ns, 10 Hz; Attenuator] | 6 J/cm² |
| Maximum energy density [266 nm, 7 ns, 10 Hz; Device Itself] | 0.5 J/cm² |
| Maximum energy density [266 nm, 7 ns, 10 Hz; Attenuator] | 1 J/cm² |
| Maximum Average Power Density [@12 W; Device Itself] | 10 W/cm²ʰ |
| Maximum Average Power Density [@12 W; Attenuator] | 600 W/cm² |
| Absorber | Multifrequency |
| Dimensions | 122H x 122W x 98D mm |
| Weight | 1.2 kg |
Datasheet
Please provide your email to download the datasheet.
Invalid email format. Please try again.
Supplier Information
Related Products
-
SS-10 standard two-dimensional scanning system Laser Scanning and Ranging Sp-scan
Incident beam spot: 10 mm Following error time: 150 μs Marking Speed [F-theta f=160mm]: 2 m/s
The SS-10-II series comprises two-dimensional scanners with a 10mm incident spot. The SS-10-DA is the standard 10mm model with high accuracy, speed, and stability for marking, on-the-fly marking, and 3D printing. The SS-10-DA-G is a high-speed 10mm model with faster response. The SS-10-DAM is a high-precision 10mm model with faster response and greater repeatability for precision cutting. The SS-10-DA-R is a 10mm model with dual red-light positioning, internally powered with no external supply required and a control switch.
-
D9 Pro Laser Measure with Dual Aligning Indicators Laser Scanning and Ranging Mileseey
Range: 0.2~100 m Range: 0.66~330 ft Accuracy: ±1/16
D9 Pro provides a 0.2 m to 100 m (0.66 ft to 330 ft) measuring range with ±1/16" (±2 mm) accuracy, point-to-point measurement, bilateral laser alignment and a 2.4" IPS touchscreen. The product body states 14 measuring modes and supports app data sync, real-time angle display, magnetic mounting and a built-in flashlight.
-
IONJET2 Laser Rangefinder for Archery Hunting Laser Scanning and Ranging Mileseey
Measuring Range [product-info]: 2000 yards Ranging Accuracy [product-info]: ±0.5 yd Field of View: 7.5 °
The ARCH mode is specifically designed for bow hunters, and the BOWC technology integrated into the rangefinder provides more intuitive data reference for archers.
-
IONJET8 Hunting Laser Rangefinder Laser Scanning and Ranging Mileseey
Display: Micro-LED Maximum Measuring Range [product-info/main body]: 8000 yards Durability Test: MIL-STD-810H
Crystal-clear precision up to 8,000 yards in any light. The IONJET8 with microLED display, 7.9° ultra-wide FOV, real-time environmental sensors and advanced ballistic calculation. MIL-STD-810H tested and IP67 rated.
-
LK01 Laser Rangefinder for Hunting Laser Scanning and Ranging Mileseey
Maximum Distance: 1200 yards Module Type: Multi-functional laser distance measure module Data Sync: Type-C connection
Mileseey LK01 Auxiliary Ballistic Smart Laser Rangefinder with Bluetooth is your hunting assistant you can use. Packed with pulse laser ranging sensor up to 1200yds. Get yours today!
Related Articles
Fomoptic delivers integrated one‑stop optical solutions covering precision optical fabrication and custom vacuum coating services. Supported by complete processing production lines, comprehensive metrology equipment and experienced engineering team, we provide full‑chain customized components, ranging from blank shaping, ultra‑precision polishing to thin‑film coating, for laser systems, infrared imaging, industrial optics and scientific‑research projects.
A solid-state laser is one of the most common and reliable laser types used in modern industry, medical equipment, and scientific research. Unlike gas or fiber lasers, it uses solid materials as its gain medium to generate stable, high-brightness laser beams. Thanks to its high precision, long lifespan, and compact structure, solid-state lasers have become a mainstream solution for high-precision laser processing and optical systems.
In photonics and laser technology, devices that manipulate optical signals via the electro-optic effect form the backbone of precision optical systems. Electro-optic phase modulators and electro-optic deflectors are two prominent examples of this device category. As a critical hardware solution for high-speed, high-accuracy laser beam direction control, electro-optic deflectors are widely deployed across industrial and research settings. Below is a detailed overview of their core structure, key performance drivers, and primary use cases.
In UV laser testing, UV spectroscopy and lithography optical experiments, excessive light intensity will lead to detector saturation, optical component damage and overexposed imaging.
Loading...
Name
Phone
Organization
Use Case
Database Platform