100mW CW HP

100mW CW HP

Supplier
Etern-laser
Category
Laser Diodes
Origin
China

Etern-laser has developed a 1310nm 100mW continuous-wave high-power (CWHP) laser. Its uncooled single-mode edge-emitting directly modulated laser (DML) design combines passive butt-coupling technology and advanced processes to ensure stable output of ≥100mW across - 5°C to 75°C. Low relative intensity noise (RIN), high beam ellipticity, and low power consumption maintain clean, stable optical signals, optimize beam quality for transmission efficiency, and reduce energy costs. Applications include Ethernet, data communications, and optical engines. It offers excellent performance in high-speed, stable network links or as a core optical-engine component, providing efficient, reliable optical solutions.

Specification Snapshot
Operating Temperature [Parameters tested at 25°C unless otherwise specified.]
min:-5 °C; max:75 °C
Output Power [CW, 25C, I=300mA;Parameters tested at 25°C unless otherwise specified.]
min:100 mW
Output Power [CW, 75C, I=450mA;Parameters tested at 25°C unless otherwise specified.]
min:100 mW
Threshold Current Ith [25C;Parameters tested at 25°C unless otherwise specified.]
typical:20 mA; max:30 mA
Threshold Current Ith [75C;Parameters tested at 25°C unless otherwise specified.]
typical:35 mA; max:50 mA
Forward Voltage VF [CW, Iop, 25C;Parameters tested at 25°C unless otherwise specified.]
max:1.5 V
Request a Quote Download Datasheet
Save to Favorites Save to Favorites

Overview

Etern-laser has developed a 1310nm 100mW continuous-wave high-power (CWHP) laser. Its uncooled single-mode edge-emitting directly modulated laser (DML) design combines passive butt-coupling technology and advanced processes to ensure stable output of ≥100mW across - 5°C to 75°C. Low relative intensity noise (RIN), high beam ellipticity, and low power consumption maintain clean, stable optical signals, optimize beam quality for transmission efficiency, and reduce energy costs. Applications include Ethernet, data communications, and optical engines. It offers excellent performance in high-speed, stable network links or as a core optical-engine component, providing efficient, reliable optical solutions.

Specifications

ParameterValue
Operating Temperature [Parameters tested at 25°C unless otherwise specified.]min:-5 °C; max:75 °C
Output Power [CW, 25C, I=300mA;Parameters tested at 25°C unless otherwise specified.]min:100 mW
Output Power [CW, 75C, I=450mA;Parameters tested at 25°C unless otherwise specified.]min:100 mW
Threshold Current Ith [25C;Parameters tested at 25°C unless otherwise specified.]typical:20 mA; max:30 mA
Threshold Current Ith [75C;Parameters tested at 25°C unless otherwise specified.]typical:35 mA; max:50 mA
Forward Voltage VF [CW, Iop, 25C;Parameters tested at 25°C unless otherwise specified.]max:1.5 V
Forward Voltage VF [CW, Iop, 75C;Parameters tested at 25°C unless otherwise specified.]max:2 V
Operating Current Iop [CW, Po=100mW, 25C;Parameters tested at 25°C unless otherwise specified.]typical:250 mA; max:300 mA
Operating Current Iop [CW, Po=100mW, 75C;Parameters tested at 25°C unless otherwise specified.]typical:400 mA; max:450 mA
Center Wavelength λ0 [CW, Po=100mW, 25C;Parameters tested at 25°C unless otherwise specified.]min:1267 nm; max:1272 nm
Center Wavelength λ1 [CW, Po=100mW, 25C;Parameters tested at 25°C unless otherwise specified.]min:1287 nm; max:1292 nm
Center Wavelength λ2 [CW, Po=100mW, 25C;Parameters tested at 25°C unless otherwise specified.]min:1307 nm; max:1312 nm
Center Wavelength λ3 [CW, Po=100mW, 25C;Parameters tested at 25°C unless otherwise specified.]min:1327 nm; max:1332 nm
Side-mode Suppression Ratio SMSR [Po=100mW;Parameters tested at 25°C unless otherwise specified.]min:35 dB
Power conversion efficiency PCE [25C, Po=100mW;Parameters tested at 25°C unless otherwise specified.]typical:30%
Power conversion efficiency PCE [75C, Po=100mW;Parameters tested at 25°C unless otherwise specified.]typical:15%
Wavelength Temperature Coefficient Δλ/ΔT [Po=100mW, Tc= -5°C~75°C;Parameters tested at 25°C unless otherwise specified.]typical:0.09 nm/°C
Far-field Angle (FWHM) θ// [FWHM;Parameters tested at 25°C unless otherwise specified.]typical:17 Deg
Far-field Angle (FWHM) θ⊥ [FWHM;Parameters tested at 25°C unless otherwise specified.]typical:17 Deg
Spectral Width Δλ [CW, Po=100mW;Parameters tested at 25°C unless otherwise specified.]max:0.6 nm
Relative Intensity Noise(RIN) [Po=100mW;Parameters tested at 25°C unless otherwise specified.]max:-140 db/Hz1/2

Applications

Sensing Silicon Photonic

Key Features

High Power High Wall-Plug Efficiency Low Threshold High Reliability

Datasheet

Please provide your email to download the datasheet.

Your name
Email Address

Invalid email format. Please try again.

Send Request

Supplier Information

Et
Etern-laser
View Supplier →
Suzhou Dingxin Optoelectronic Technology Co., Ltd. is dedicated to the R&D and manufacturing of high-performance integrated optical chips. It possesses an industry-leading compound semiconductor process line supporting 3/4/6-inch wafer mass production, with capabilities covering chip design, crystal material growth, wafer fabrication, testing and packaging, providing one-stop solutions from wafer to device. Adopting an IDM model, the company enforces strict reliability standards. Its product portfolio includes EML, communication DFB, silicon photonics DFB, sensing, narrow linewidth laser chips, etc., applied in telecom, datacom, LiDAR, methane detection, and offers customized design and foundry services.

Request a Quote

Our team responds within 24–48 hours
100mW CW HP
Etern-laser · Laser Diodes
Direct from Manufacturer
Your inquiry will be sent directly to the manufacturer
Photonics Source Platform
We handles the inquiry on your behalf
Your information is protected and will never be shared without consent.
Contact Us

Loading...

GetExperimental Plan

Name

Phone

+86

Organization

Use Case

AI Parametric Selection
Smart Match · Precise Recs
Enter Specifications
AI Smart Matching
Get Best Matches
Skip Manual Comparison
Find Best Solutions Fast
Select Now →