Description
A Glance at Short Wave Fibre Channel Transceiver
In the fast-evolving landscape of data storage and networking, the HPE MSA 16 Gigabyte (GB) Short Wave Fibre Channel Optical Fiber Small Form-Factor Pluggable Plus (SFP+) 4-Pack Transceiver Module (part number: 720999-002) stands out as a crucial component for seamless and high-performance connectivity. This comprehensive guide aims to demystify the features, functionality, and advantages of this transceiver module in simple English, making it accessible to a wide audience.
Understanding HPE MSA 16GB Transceiver ModuleOverview of Transceiver Modules
Transceiver modules play a pivotal role in data communication by converting electrical signals into optical signals and vice versa. The HPE MSA 16GB SFP+ Transceiver Module is designed to meet the demands of modern data centers, providing a high-speed, reliable, and scalable solution for Fibre Channel connectivity.
Key Features of HPE MSA 16GB Transceiver Module
- 16 Gigabyte (GB) Data Rate: The HPE MSA transceiver module operates at an impressive 16GB data rate, ensuring rapid data transmission and retrieval.
- Short Wave Fibre Channel: This module utilizes short-wave optical signals for Fibre Channel communication, offering a balance between speed and distance.
- Small Form-Factor Pluggable Plus (SFP+): The small form factor enhances port density, allowing for more interfaces within a limited space.
- 4-Pack Configuration: The 720999-002 model comes in a 4-pack configuration, providing flexibility and redundancy in network setups.
Compatibility and Use Cases
- Compatibility with HPE MSA Storage Systems: This transceiver module is specifically designed for integration with HPE MSA storage systems, ensuring seamless compatibility and optimal performance.
- Versatility in Networking Environments: Whether in enterprise-level data centers or smaller-scale networking environments, the HPE MSA 16GB transceiver module proves versatile, addressing a range of connectivity needs.
Performance and Reliability of SFP+TransceiverHigh-Speed Data Transmission
- Optimized Data Transfer Rates: The 16GB data rate ensures that the HPE MSA transceiver module can handle the high demands of modern data transfer, supporting bandwidth-intensive applications and workloads.
Reliability in Fibre Channel Environments
- Error Handling Mechanisms: Built-in error handling mechanisms enhance the reliability of data transmission, reducing the risk of data corruption and ensuring the integrity of critical information.
- Redundancy Features: The 4-pack configuration provides redundancy, offering a failover mechanism that contributes to system resilience and continuous operation.
Advantages and Benefits of MSA 16GB transceiver moduleScalability and Flexibility
- Scalable Solutions: The modular design of the HPE MSA 16GB transceiver module allows for easy scalability. Users can expand their network infrastructure by adding more modules as needed.
- Flexibility in Network Design: With the small form-factor design and 4-pack configuration, users have the flexibility to design and scale their networks according to specific requirements.
Cost-Effective Connectivity
- Value for Money: The HPE MSA transceiver module provides a cost-effective solution for high-speed Fibre Channel connectivity, offering a balance between performance and affordability.
- Long-Term Investment: As technology advances, the HPE MSA transceiver module’s design ensures it remains relevant, protecting the user’s investment in network infrastructure.
Multi-Mode Fiber Optic Cabling
Multi-mode fiber optic cabling is a type of optical fiber cabling that is designed to transmit data over relatively short distances at high speeds. Unlike single-mode fiber optic cabling, which is designed for long-distance transmission, multi-mode fiber is optimized for use in local area networks (LANs) and data centers.
Multi-mode fiber optic cabling consists of a core of glass or plastic surrounded by a cladding material that reflects light back into the core. The core diameter is typically larger than that of single-mode fiber, ranging from 50 to 62.5 microns, which allows for the transmission of multiple modes of light simultaneously. This enables the cable to carry higher bandwidths over shorter distances than single-mode fiber optic cabling.
One of the primary benefits of multi-mode fiber optic cabling is its ability to support high-speed data transmission over short distances. With the use of light-emitting diodes (LEDs) or laser diodes, multi-mode fiber optic cabling can support data rates of up to 100 gigabits per second (Gbps) over distances of up to several hundred meters. This makes multi-mode fiber optic cabling an ideal choice for use in LANs and data centers where high-speed data transmission is required over relatively short distances.
Another advantage of multi-mode fiber optic cabling is its relatively low cost compared to single-mode fiber. This is because the larger core diameter of multi-mode fiber makes it easier to manufacture, and the LED or laser sources used to drive the cable are also less expensive than those used for single-mode fiber.
There are two types of multi-mode fiber optic cabling: OM1 and OM2. OM1 cables have a core diameter of 62.5 microns and can transmit data at speeds of up to 10 Gbps over distances of up to 300 meters. OM2 cables have a core diameter of 50 microns and can transmit data at speeds of up to 10 Gbps over distances of up to 550 meters. Both types of cables are widely used in LANs and data centers.
Network Topology and Architecture
Network topology refers to the physical and logical arrangement of the components of a computer network, including nodes (such as computers, servers, and other devices) and the connections between them. Network architecture, on the other hand, refers to the overall design and structure of the network, including the protocols, services, and applications that are used to manage and transmit data over the network.
Network topology can be classified into several types, including:
- Bus topology – all nodes are connected to a single communication line or “bus”
- Star topology – all nodes are connected to a central hub or switch
- Ring topology – nodes are connected in a circular arrangement, with each node connected to the adjacent nodes
- Mesh topology – nodes are connected to multiple other nodes, creating redundant paths for data transmission
- Hybrid topology – a combination of two or more of the above topologies
The choice of network topology depends on various factors, such as the number of nodes in the network, the distance between them, the amount of data being transmitted, and the level of redundancy and fault tolerance required.
Network architecture includes the protocols, services, and applications used to manage and transmit data over the network. This includes the Internet Protocol (IP), Transmission Control Protocol (TCP), and User Datagram Protocol (UDP), among others. It also includes various networking services, such as Domain Name System (DNS), Dynamic Host Configuration Protocol (DHCP), and Simple Mail Transfer Protocol (SMTP), which provide important functions such as name resolution, address assignment, and email delivery.
In addition, network architecture includes the applications and services that run on top of the network, such as file sharing, web browsing, email, and video conferencing. These applications use the underlying network protocols and services to transmit data between nodes and to interact with users.
The choice of network architecture depends on the specific requirements of the network and the applications that will be running on it. For example, a network that requires high-speed data transmission and low latency may use a protocol such as TCP/IP, while a network that requires real-time communication may use a protocol such as Real-Time Transport Protocol (RTP).
Fibre Channel Compatibility
Fibre Channel is a high-speed network technology used primarily for storage area networks (SANs) and is designed to provide fast, reliable, and scalable connectivity between servers and storage devices. Fibre Channel compatibility refers to the ability of different Fibre Channel devices, such as host bus adapters (HBAs), switches, and storage arrays, to work together seamlessly within a Fibre Channel network.
Fibre Channel compatibility is important for several reasons. First, it ensures that different components of the network can communicate with each other, enabling data to flow smoothly between servers and storage devices. Second, it allows for the use of different vendors’ products in the same network, giving users more flexibility in designing and implementing their SAN infrastructure. Third, it simplifies the process of adding new devices to the network or upgrading existing devices, as long as they are compatible with the existing components.
To ensure Fibre Channel compatibility, different vendors’ products must adhere to industry standards established by the Fibre Channel Industry Association (FCIA). These standards specify the physical, electrical, and protocol characteristics of Fibre Channel components, including data rates, transmission distances, signaling methods, and error detection and correction techniques. Fibre Channel devices that conform to these standards are said to be interoperable and can be used together in the same network.
Fibre Channel compatibility also depends on the type of Fibre Channel topology used in the network. There are three main types of Fibre Channel topologies: point-to-point, arbitrated loop, and switched fabric. Each topology has its own set of compatibility requirements, and it is important to ensure that the devices being used are compatible with the chosen topology.
General Information of SFP+Transceiver
- Manufacturer: HPE
- Model Number or SKU# 720999-002
- Product Type: Transceiver Module
Performance for Transceiver Module
- Media Type Supported: Optical Fiber
- Ethernet Technology: 16 Gigabit Ethernet
- Network Technology: Fiber Channel
- Cabling Type: Fibre Channel
- Connectivity Technology: Wired
- Data Link Protocol: 16Gb Fibre Channel (SW)
Compatibility
This Transceiver Module is compatible with the following HPE products:
- HPE Modular Smart Array 1040 10Gb iSCSI Dual Controller SFF Bundle
- HPE Modular Smart Array 1040 Dual Controller SFF Bundle
- HPE Modular Smart Array 1040 FC Dual Controller SFF Bundle
- HPE Modular Smart Array 1040 LFF Disk Enclosure
- HPE Modular Smart Array 1040 SAN Dual Controller LFF Storage
- HPE Modular Smart Array 1040 SAN Dual Controller SFF Bundle
- HPE Modular Smart Array 1040 SAN Dual Controller SFF Storage
- HPE Modular Smart Array 1040 SAS Dual Controller SFF Bundle
- HPE Modular Smart Array 1040 SFF Chassis
- HPE Modular Smart Array 1040 SFF DC-power Chassis
- HPE Modular Smart Array 2040 10Gb iSCSI Dual Controller SFF Bundle
- HPE Modular Smart Array 2040 Dual Controller SFF Bundle
- HPE Modular Smart Array 2040 FC Dual Controller SFF Bundle
- HPE Modular Smart Array 2040 LFF Disk Enclosure
- HPE Modular Smart Array 2040 SAN Dual Controller LFF Storage
- HPE Modular Smart Array 2040 SAN Dual Controller SFF Bundle
- HPE Modular Smart Array 2040 SAN Dual Controller SFF Storage
- HPE Modular Smart Array 2040 SAS Dual Controller SFF Bundle
- HPE Modular Smart Array 2040 SFF Chassis
- HPE Modular Smart Array 2040 SFF DC-power Chassis
In short, the HPE MSA 16GB Short Wave Fibre Channel Optical Fiber SFP+ Transceiver Module (720999-002) proves to be a vital component in modern networking environments. Its high-speed capabilities, ease of installation, and scalability make it an attractive choice for organizations seeking reliable and efficient Fibre Channel connectivity. By understanding its features, performance benefits, and users can harness the full potential of this transceiver module, contributing to the seamless operation of their network infrastructure.
