Category 5G Network

Abstract image of bright blue light rays forming a dynamic, curving wave against a dark background, representing high-speed data flow and optical transmission.

5G Network, Optical Transceiver

CWDM vs DWDM: Which Technology Should You Choose for Your Network?

CWDM is cheaper for short-haul access networks due to uncooled lasers (20nm spacing), while DWDM offers greater capacity and distance (>80km) for core links.

Abstract image of numerous bright blue, glowing light strands curving in a stream against a black background, representing high-speed data flow and fiber optic cables.

5G Network, Fiber Patch Cable

How Fast is Fiber Optic Speed, and What Components Define Its Limit?

Fiber optic speed is defined by the transceivers and cables used. We explain data rates from 10G to 800G, the role of modulation (PAM4), and why high-quality AOCs are key.

Infographic showing a red laser beam passing through an optical medium, illustrating how optical density (OD) measures the reduction of light intensity, with a green curve charting OD levels from 0 to 5+ and a warning symbol for laser safety at OD > 4.

5G Network, Fiber Patch Cable

What is Optical Density? The Logarithmic Key to Laser Safety and Fiber Attenuation

Optical Density (OD) is the logarithmic measure of light attenuation. It determines how much power a medium absorbs. Critical for laser safety, filters, and PHILISUN's high-precision optics.

A white small form-factor pluggable (SFP) optical transceiver module, showing the LC connector port and product details, including 'SFP+ 10G 1310nm 20km LC DX' for high-speed fiber optic data transmission.

5G Network, Optical Transceiver

The Ultimate Guide to Ciena S10U27 Alternatives: Why PHILISUN SFP+ is the Smart Choice

The Ciena S10U27 is a 10G SFP+ optical transceiver using 1310nm for medium-to-long distance links. Discover its technical specifications and explore high-quality, fully compatible alternatives from PHILISUN for superior cost efficiency.

Interior view of a modern data center with rows of black rack cabinets, showing neat fiber optic cable management with bright blue and orange patch cords, emphasizing the importance of proper cable bend radius to prevent signal loss. Two technicians are standing in the aisle.

5G Network, Fiber Patch Cable

What Are The Min and Max Bend Radius of Fiber Optic Cable?

We clarify the critical difference between the fiber bend radius(MBR) required for installation (Max) and the tighter, static radius (Min) that governs long-term cable durability.

A coiled yellow fiber optic patch cable with a blue LC connector on one end and a black LC connector on the other, both against a white background.

5G Network, Fiber Patch Cable

LC APC vs LC UPC: Which Single-Mode Connector Do You Actually Need?

LC APC vs LC UPC connector explained. Learn the differences in return loss, applications, and performance. Discover which connector your single-mode network really needs.

A futuristic data center aisle with rows of server racks on either side. Bright, glowing lines of blue, green, and orange light streak across the image, representing high-speed data flow and network connections. A central glowing square on the floor acts as a hub for these connections. The floor has glowing circuit-like patterns and holographic interface displays, emphasizing advanced technology and rapid data processing.

5G Network, Fiber Patch Cable

Understanding Differences: OM4 vs OM5 Multimode Fiber for High-Speed Network

Compare OM4 Fiber vs OM5 Fiber for your data center evolution. Understand their core differences in wavelength, capacity, and long-term investment. Discover PHILISUN's optimized fiber solutions.

5G Network, Fiber Patch Cable

Simplex vs Duplex Fiber: Understanding Fiber Types and When to Use MPO

What is the difference between Simplex and Duplex fiber? We explain the applications for each, from BiDi transceivers to standard LC patch cords, and introduce the future: MPO parallel optics.

5G Network, Optical Transceiver

What Is POTN? Packet Optical Transport Network Guide

Packet Optical Transport Network (POTN) is a groundbreaking technology that combines the advantages of PTN and OTN.