Video Signal Optical Fiber Transmission Solution

1. Background

1.1. Shortage of traditional video signal transmission solution

1. They can't transmit signals over long distances without quality loss.
2. Different connectors provide different bandwidths.
3. 4K and 8K cables are costly, thick, and hard to handle.
4. Cable connectors are easily damaged and hard to fix.

1.1. Shortage of traditional video signal transmission solution

Optical fiber transmission is ideal for long distances and offers several advantages over traditional cables:
1. Longer Transmission Distance: Fiber optics offer longer, more stable transmission with less loss and stronger resistance to electromagnetic interference.
2. Lower Cost: Fiber optics and optical modules are more affordable and user-friendly.
3. Easier Maintenance: In a setup of two optical modules and one optical fiber, issues can be easily fixed by replacing the damaged component.
The PIXELHUE & NovaStar transmission solution utilizes standard SFP+ connectors, offering a mature, stable, and efficient method for long-distance video transmission. It outperforms traditional cable transmission in terms of distance, portability, cost, and maintenance.

2. Optical Transmission Knowledge Highlights

2.1 Characteristics and differentiation methods of single-mode and multi-mode optical modules

 2.1.1 Differences between single-mode and multi-mode optical modules

2.1.2 Optical module parameter interpretation and differentiation methods
Parameter interpretation:
As shown in Figure 2.1 and Figure 2.2, optical modules are labeled with tags that indicate their parameters.

Figure 2.1

Figure 2.2

Figure 2.1 shows a multi-mode optical module. Figure 2.2 shows a single-mode optical module. The label on an optical module typically includes following parameters that indicate its specifications.

Differentiation Methods:
Check the lable on the optical module and identify by the wavelength, transmission distance and other parameters;

2.2 Characteristics and differentiation methods of single-mode and multi-mode fibers

2.2.1 Differences between single-mode and multi-mode fibers

2.2.2. Fiber optic line mark parameter interpretation and differentiation methods
Parameter interpretation:
As shown in Figures 2.3 and Figure 2.4, the cladding of the fiber will have a mark after production. This mark differs between armored and unarmored fibers, as demonstrated in the following examples.

Figure 2.3

Figure 2.3 shows an illustration of the mark on an unarmored fiber optic cord.
The general format of the mark on unarmored fiber is "OPTICAL FIBER CABLE MM 50/125um OM3-PVC-02/2018 0135M".

Figure 2.4

3. PIXELHUE & NovaStar's Optical Transmission-enabled Devices and Usage Methods

3.1 Introduction to PIXELHUE devices

3.1.1 P20 Seamless Switcher

Figure 3.1

The P20 features 8 optical port outputs, with the specifications detailed in the table below.
3.1.2 P10 Seamless Switcher

Figure 3.2

The P10 features 4 optical port outputs, with the specifications detailed in the table below.

3.1.3 Q8

Figure 3.3

3.1.4 F8/F4

Figure 3.4

3.2 NovaStar's optical transmission-enabled receiving devices

 3.2.1 NovaPro UHD Jr

Figure 3.5

The NovaPro UHD Jr features 4 optical port outputs.

3.2.2 VX1000/VX600/VX400

The VX series feature 2 optical ports.

3.2.3 H-Series Optical Input subcard

Figure 3.6

3.3. Typical application scenarios and environment construction of NovaStar's optical transmission program

The P20 works with the NovaPro UHD Jr:

Figure 3.7

As shown in Figure 3.7, the input source is connected to the P20. After professional processing by the P20, the video is transmitted via fiber optic to the JR. The JR receives the video through the optical port, processes it, and displays it on the LED screen. The collaboration between the professional video processor P20 and the NovaPro UHD JR controller ensures the optimal on-screen effect.