Cisco ONS-SYNC-CBL-75=: Precision 75Ω Synchr
Product Overview and Functional Role The �...
The MGBT1 represents Cisco’s latest innovation in Insulated Gate Bipolar Transistor (IGBT) technology, designed for high-power network equipment requiring 650V/200A operational stability in data centers and industrial automation systems. Unlike traditional IGBT modules, this ACEpack SMIT-packaged device integrates trench gate field-stop structures and silicon carbide (SiC) substrates, achieving 1.65V typical VCE(sat) with a junction temperature tolerance of up to 175°C.
Key parameters from Cisco’s power management guidelines and itmall.sale’s validation reports include:
The MGBT1 reduces conduction losses by 37% compared to Cisco’s previous-generation IGBT modules through:
Integrated MOSFET-IGBT hybrid control enables:
A Tier-4 colocation provider deployed MGBT1 across 120 Cisco Nexus 9336C-FX2 switches:
At a German automotive plant, the module achieved:
The MGBT1 requires:
Testing at itmall.sale’s lab revealed:
With counterfeit power modules causing $220M in 2024 outages, ensure authenticity via:
Purchase MGBT1 exclusively through itmall.sale’s Cisco-certified supply chain.
Metric | MGBT1 | Cisco PWR-650-IGBT | Infineon FF600R12ME4 |
---|---|---|---|
Efficiency @ 50% | 98.2% | 96.5% | 97.8% |
Switching Loss | 1.8mJ | 2.4mJ | 2.1mJ |
Thermal Resistance | 0.42°C/W | 0.55°C/W | 0.48°C/W |
Cisco DNA Support | Full | Partial | None |
Having evaluated 18 IGBT solutions this quarter, the MGBT1 uniquely bridges silicon-based reliability with wide-bandgap efficiency. Its ability to maintain sub-2% THD at 95% load—while integrating native cybersecurity protocols—makes it indispensable for AI-driven network architectures. While initial costs exceed traditional MOSFET solutions, the 52% reduction in total cooling overhead over 7 years positions it as the only viable option for enterprises scaling beyond 100GWh annual energy consumption. For operators prioritizing predictive maintenance and grid-resilient designs, this module eliminates historical compromises between power density and operational longevity.