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

S5735-L48S4X-A-V2 Switch

48xGE SFP ports/4x10GE SFP+ ports/built-in AC power/front access
Model: S5735-L48S4X-A-V2
  • S5735-L48S4X-A-V2 Switch
  • S5735-L48S4X-A-V2 Switch
  • S5735-L48S4X-A-V2 Switch
  • S5735-L48S4X-A-V2 Switch
  • S5735-L48S4X-A-V2 Switch
  • S5735-L48S4X-A-V2 Switch
  • S5735-L48S4X-A-V2 Switch
  • S5735-L48S4X-A-V2 Switch
  • Description

  • Application Scenario

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
 Static power consumption  32 W
 MTBF  47.14 years
 Availability  > 0.99999
Noise at normal temperature (acoustic power)   45.6 dB(A)
 Noise at normal temperature (acoustic pressure)  33.6 dB(A)
 Number of card slots  0
 Number of power slots  0
 Number of fans modules  2
 Redundant power supply  Not supported
 Long-term operating temperature  -5°C to +50°C (23°F to 122°F) at an altitude of 0-1800 m (0-5905.44 ft.)
Restriction on the operating temperature variation rate

When the altitude is 1800–5000 m (5906–16404 ft.), the highest operating temperature reduces by 1°C (1.8°F) every time the altitude increases by 220 m (722 ft.).

Devices cannot start when the temperature is lower than 0°C (32°F).

Storage temperature –40°C to +70°C (–40°F to +158°F)
Long-term operating relative humidity 5% RH to 95% RH, non-condensing
Long-term operating altitude 0–5000 m (0–16404 ft.)
Storage altitude  0-5000 m (0-16404 ft.)
Power supply mode AC built-in
Rated input voltage AC input: 100–240 V AC; 50/60 Hz
Input voltage range AC input: 90 V AC to 264 V AC, 47 Hz to 63 Hz
Maximum input current  3 A
Memory 2 GB
Flash memory Physical space: 1 GB
Console port RJ45
Eth Management port RJ45
USB Supported
RTC Not supported
RPS input Not supported
Power supply surge protection Differential mode: ±6 kV; common mode: ±6 kV
Ingress protection level (dustproof/waterproof) IP20
Types of fans Built-in
Heat dissipation mode Air cooling for heat dissipation, intelligent fan speed adjustment
Airflow direction Air intake from left and front, air exhaustion from right
PoE Not supported
Certification

EMC certification

Safety certification

Manufacturing certification

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.