- play_arrow Overview
- play_arrow Configuring Switching Control Board Redundancy
- play_arrow Configuring Bidirectional Forwarding Detection (BFD)
- play_arrow Configuring Routing Engine Redundancy
- play_arrow Configuring Load Balancing
- play_arrow Configuring Graceful Routing Engine Switchover (GRES)
- play_arrow Configuring Ethernet Ring Protection Switching
- play_arrow Configuring Nonstop Bridging
- play_arrow Configuring Nonstop Active Routing (NSR)
- play_arrow Configuring Graceful Restart
- play_arrow Power Management Overview
- play_arrow Configuring Virtual Router Redundancy Protocol (VRRP)
- play_arrow Performing Unified In-Service Software Upgrade (ISSU)
- play_arrow Performing Nonstop Software Upgrade (NSSU)
- play_arrow Multinode High Availability
- Multinode High Availability
- Prepare Your Environment for Multinode High Availability Deployment
- Multinode High Availability Services
- IPsec VPN Support in Multinode High Availability
- Asymmetric Traffic Flow Support in Multinode High Availability
- Example: Configure Multinode High Availability in a Layer 3 Network
- Example: Configure Multinode High Availability in a Default Gateway Deployment
- Example: Configure Multinode High Availability in a Hybrid Deployment
- Example: Configure IPSec VPN in Active-Active Multinode High Availability in a Layer 3 Network
- Example: Configure Multinode High Availability with Junos OS Configuration Groups
- Software Upgrade in Multinode High Availability
- Insert Additional SRX5K-SPC3 in a Multinode High Availability Setup
- Multinode High Availability Support for vSRX Virtual Firewall Instances
- Multinode High Availability in AWS Deployments
- Multinode High Availability in Azure Cloud
- Multinode High Availability in Google Cloud Platform
- Multinode High Availability Monitoring Options
- play_arrow Administration
- Upgrading Software on an EX6200 or EX8200 Standalone Switch Using Nonstop Software Upgrade (CLI Procedure)
- Upgrading Software on an EX8200 Virtual Chassis Using Nonstop Software Upgrade (CLI Procedure)
- Upgrading Software Using Nonstop Software Upgrade on EX Series Virtual Chassis and Mixed Virtual Chassis (CLI Procedure)
- play_arrow Troubleshooting
- play_arrow Knowledge Base
Verifying Power Configuration and Use
Purpose
Verify on an EX Series switch:
The power redundancy and line card priority settings
The PoE power budgets for line cards that support PoE
Whether the N+1 or N+N power requirements are being met
Whether the switch has sufficient power for a new line card or an N+N configuration
Action
Enter the following command:
user@switch> show chassis power-budget-statistics
Example output for an EX6200 switch:
PSU 0 (EX6200-PWR-AC2500) : 2500 W Online PSU 1 (EX6200-PWR-AC2500) : 2500 W Online PSU 2 (EX6200-PWR-AC2500) : 2500 W Online PSU 3 (EX6200-PWR-AC2500) : 2500 W Online Total Power supplied by all Online PSUs : 10000 W Power Redundancy Configuration : N+1 Power Reserved for the Chassis : 500 W Fan Tray Statistics Base power Power Used FTC 0 : 300 W 43.04 W FPC Statistics Base power Power Used PoE power Priority FPC 1 (EX6200-48P) : 220 W 49.47 W 1440 W 1 FPC 2 (EX6200-48P) : 220 W 47.20 W 800 W 2 FPC 3 (EX6200-48P) : 220 W 1493.57 W 1440 W 0 FPC 4 (EX6200-SRE64-4XS) : 100 W 51.38 W 0 W 0 FPC 5 (EX6200-SRE64-4XS) : 100 W 50.28 W 0 W 0 FPC 6 (EX6200-48P) : 220 W 49.38 W 800 W 6 FPC 8 (EX6200-48P) : 220 W 61.41 W 1440 W 9 FPC 9 (EX6200-48T) : 150 W 12.49 W 0 W 9 Total (non-PoE) Power allocated : 1750 W Total Power allocated for PoE : 5920 W Power Available (Redundant case) : 5750 W Total Power Available : 2515 W
Example output for an EX8200 switch:
PSU 0 (EX8200-AC2K) : 1200 W Online PSU 1 (EX8200-AC2K) : 1200 W Online PSU 2 (EX8200-AC2K) : 1200 W Online PSU 3 (EX8200-AC2K) : 1200 W Online Total Power supplied by all Online PSUs : 4800 W Power Redundancy Configuration : N+1 Power Reserved for the Chassis : 1600 W FPC Statistics Base power PoE power Priority FPC 0 (EX8200-48T) : 350 W 0 W 2 FPC 1 (EX8200-2XS-40P) : 387 W 300 W 0 FPC 2 (EX8200-48PL) : 267 W 350 W 15 FPC 4 (EX8200-2XS-40P) : 387 W 300 W 1 FPC 5 (EX8200-48TL) : 230 W 0 W 15 FPC 6 (EX8200-48TL) : 230 W 0 W 15 Total (non-PoE) Power allocated : 3451 W Total Power allocated for PoE : 950 W Power Available (Redundant case) : 149 W Total Power Available : 510 W
Meaning
Example output for an EX6200 switch —The online power supplies can supply a total of 10,000 W to the switch. The switch is configured for N+1 redundancy, which means 7500 W of redundant power can be supplied. The Power Available (Redundant case) field shows that the switch is meeting the N+1 power requirements, with an additional 5750 W available. This value is calculated by subtracting all power allocations except PoE power allocations from redundant power (7500 W).
The total amount of power available on the switch is 2515 W. This value is calculated by subtracting all power allocations, including PoE power allocations, from the total power (10,000 W). On a switch with PoE line cards, if Total Power Available is 0, some or all of the PoE line cards might not be allocated their configured PoE power budgets, which means power to some or all PoE ports might be disabled.
The power priority order of the line cards, from highest priority line card to the lowest priority line card, is 4, 5, 3, 1, 2, 6, 8, 9. Slots 4 and 5, which contain the Switch Fabric and Routing Engine (SRE) modules, always have highest priority, even if a lower-numbered slot, such as slot 3 in this example, has a priority of 0. Should two or more 2500 W power supplies fail, power management will remove or reduce the PoE power allocations from the PoE line cards in the following order to balance the power budget: 8, 6, 2, 1, and 3.
The Power Used values for the fan tray and line cards shows the actual power being consumed for these components at the time the command was executed. These values are for your information only; power management uses allocated power, which is based on the maximum power the component might consume, and not actual power consumed, in determining its power budget.
Example output for an EX8200 switch—The online power supplies can supply a total of 4800 W to the switch. The switch is configured for N+1 redundancy, which means 3600 W of redundant power can be supplied. The Power Available (Redundant case) field shows that the switch is meeting the N+1 power requirements, with an additional 149 W available. This value is calculated by subtracting all power allocations except PoE power allocations from redundant power (3600 W). Because 149 W is insufficient power for a line card, another line card cannot be added to the switch while maintaining N+1 redundancy.
The total amount of power available on the switch is 510 W. This value is calculated by subtracting all power allocations, including PoE power allocations, from the total power (4800 W). On a switch with PoE line cards, if Total Power Available is 0, some or all of the PoE line cards might not be allocated their configured PoE power budgets, which means power to some or all PoE ports might be disabled.
The power priority order of the line cards, from highest priority line card to the lowest priority line card, is 1, 4, 0, 2, 5, 6. Should one or more 1200 W power supplies fail, power management will remove or reduce the PoE power allocations from the PoE line cards in the following order to balance the power budget: 2, 4, and 1.