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The difference between 10G network transformer and traditional transformer

Time:2025-03-11 Views:7393
10G network transformer is an electromagnetic component designed specifically for 10Gbps (10 Gigabit) Ethernet. Its core function is to achieve bidirectional conversion between electrical and magnetic signals, and provide electrical isolation and common mode interference suppression for network equipment, ensuring the stability of high-speed data transmission. The 10G network transformer is essentially a product of the evolution of Ethernet technology, and its frame format is compatible with traditional Ethernet, but it achieves speed leaps through wavelength division multiplexing and high-order modulation techniques (such as 16 level PAM). The 10G network transformer is a key component for achieving reliable signal conversion and isolation in high-speed network equipment. Through protocol adaptation, material optimization (such as high permeability magnetic cores), and high-frequency design, it supports the efficient operation of modern 10G Ethernet. So what is the difference between 10G network transformers and traditional network transformers?

The difference between 10G network transformer and traditional network transformer

1. Transmission rate
10G network transformer: Supports a maximum data transmission rate of 10Gbps, suitable for high-speed network equipment and data center scenarios.
Traditional network transformers typically support gigabit (1Gbps) and below speeds, such as 100M/1000Mbps.

2. High frequency test parameters
10G network transformer: High frequency parameters (such as return loss and insertion loss) need to be tested within the frequency range of 0-500MHz to ensure signal stability at ultra-high frequencies.
Traditional network transformer: The testing frequency is relatively low, for example, gigabit products only need to cover 0-100MHz .

3. Structural design
10G network transformer: adopting ultra-thin design (such as 4mm thickness), supporting dual port bidirectional transmission, with higher integration .
Traditional network transformers: relatively large in size, compact in structure, typically designed for single port unidirectional transmission.

4. Materials and processes
10G network transformer: using high-quality magnetic cores and low-power materials, with more advanced technology to ensure high reliability and low latency.
Traditional network transformer: The material specifications are relatively low (such as UI value 4700uH magnetic core), and the process tends to meet general requirements.

5. Application scenarios
10G network transformer: specifically designed for scenarios such as 10G switches, optical modules, data centers, etc. that require high bandwidth and real-time performance.
Traditional network transformers: commonly found in ordinary routers, industrial grade equipment, and low-speed network environments.

6. Compatibility
10G network transformer: supports multiple protocols (such as IEEE 802.3 series), adapts to different high-speed devices and interfaces.
Traditional network transformers have limited compatibility and are mainly designed for specific low-speed protocols.

7. Power consumption and heat dissipation
10G network transformer: adopting low-power design, better heat generation control, suitable for long-term high load operation.
Traditional network transformers have relatively high power consumption and low heat dissipation requirements.

8. POE support
10G network transformer: Some models support high-power POE++(such as 90W) and require the use of high current resistant magnetic cores and wire .
Traditional network transformer: POE support is limited (such as POE+30W), with lower material specifications of .

Overall, 10G network transformers have achieved comprehensive improvements in speed, stability, and compatibility through high-frequency optimization, structural innovation, and material upgrades, making them suitable for high-speed network equipment; Traditional products, on the other hand, maintain their advantages in cost sensitive and low rate scenarios.