• S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2

S5735-L48S4X-A-V2

Model: S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2
  • Description

  • MA5608T

Huawei CloudEngine S5735-L48S4X-A-V2 switches are ideal for scenarios such as enterprise campus network access and  gigabit to the desktop. Built on next-generation, high-performance hardware and the Huawei Versatile Routing Platform (VRP), CloudEngine S5735-L48S4X-A-V2 switches stand out with compelling features such as intelligent stack (iStack), flexible Ethernet networking, and diversified security control. They support multiple Layer 3 routing protocols and provide high performance and service processing capabilities.

Specification of S5735-L48S4X-A-V2
Ports

48*GE SFP ports, 4*10GE SFP+ ports, built-in AC power, front access

Dimensions without packaging (H x W x D)

Basic dimensions (excluding the parts protruding from the body): 43.6 mm x 442.0 mm x 220.0 mm (1.72 in. x 17.4 in. x 8.66 in.)

Maximum dimensions (the depth is the distance from ports on the front panel to the parts protruding from the rear panel): 43.6 mm x 442.0 mm x 227.0 mm (1.72 in. x 17.4 in. x 8.94 in.)

Dimensions with packaging (H x W x D)  90.0 mm x 550.0 mm x 360.0 mm (3.54 in. x 21.65 in. x 14.17 in.)
Chassis height 1 U
Chassis material Metal
Weight without packaging  3.28 kg
Weight with packaging 3.89 kg
Typical power consumption 65.6 W
Typical heat dissipation 223.83 BTU/hour
Maximum power consumption 84.1 W
Maximum heat dissipation 286.96 BTU/hour
   
   
   
   
   
   
   
   
   
   

What is a Switch?
A switch is a device that enables communication between two or more IT devices, such as computers, servers, printers, and more. It helps devices within a network share resources, including printers, file storage, internet access, and application processing. In simple terms, a switch acts as a "traffic hub" in a network.

Key Characteristics:

  • Intelligent Forwarding: Unlike a basic hub, a switch intelligently directs data packets only to the intended recipient device based on MAC addresses.

  • Efficient Communication: This targeted data transmission reduces unnecessary traffic, enhances network performance, and improves security within the local network.

  • Scalability: Switches come in various sizes, from small desktop models for home/office use to large modular switches for enterprise data centers.

Common Applications:

  • Connecting devices within a Local Area Network (LAN)

  • Building enterprise networks, data centers, or home networks

  • Supporting resource sharing and collaborative workflows

In summary, a switch is a fundamental networking device that efficiently manages and directs data flow, ensuring smooth and reliable communication between connected devices.



Core Functions of a Switch
The primary functions of a switch include:

  1. VLAN Segmentation – Enhances network security by isolating traffic into separate virtual networks.

  2. Targeted Forwarding – Improves network performance by accurately identifying and forwarding data only to the intended destination device.

  3. Traffic Control – Optimizes network reliability and stability through mechanisms like Quality of Service (QoS) and loop prevention (e.g., Spanning Tree Protocol).

  4. Link Aggregation – Increases bandwidth and provides redundancy by combining multiple physical links into a single logical channel.

    Working Principle of a Switch
    A switch operates at either the Data Link Layer (Layer 2) or the Network Layer (Layer 3) of the OSI model:

    • Layer 2 Switch: Forwards data based on MAC addresses.

    • Layer 3 Switch: Forwards data based on IP addresses.

    A switch continuously learns the MAC addresses of connected devices and records them in its MAC address table.
    The core processes include:

    1. Learning: Records the source MAC address and its corresponding port.

    2. Forwarding: Precisely forwards frames to the destination port based on the target MAC address.

    3. Flooding: If the target MAC address is not found in the table, the switch broadcasts the frame to all ports (except the source port).

    4. Update: Periodically refreshes the MAC address table to ensure accuracy and remove stale entries.