Performance
|
Switching capacity and forwarding rate
All switches are wire speed and nonblocking
|
Model Name
|
Capacity in Millions of Packets per Second (mpps) (64-byte packets)
|
Switching Capacity in Gigabits per Second (Gbps)
|
SF350-08
|
1.19
|
1.6
|
|
SF352-08
|
4.17
|
5.6
|
|
SF352-08P
|
4.17
|
5.6
|
|
SF352-08MP
|
4.17
|
5.6
|
|
SF350-24
|
9.52
|
12.8
|
|
SF350-24P
|
9.52
|
12.8
|
|
SF350-24MP
|
9.52
|
12.8
|
|
SF350-48
|
13.09
|
17.6
|
|
SF350-48P
|
13.09
|
17.6
|
|
SF350-48MP
|
13.09
|
17.6
|
|
SG350-8PD
|
46.13
|
62.0
|
|
SG350-10
|
14.88
|
20.0
|
|
SG350-10P
|
14.88
|
20.0
|
|
SG350-10MP
|
14.88
|
20.0
|
|
SG355-10MP
|
14.88
|
20.0
|
|
SG350-10SFP
|
14.88
|
20.0
|
|
SG350-20
|
29.76
|
40.0
|
|
SG350-28
|
41.66
|
56.0
|
|
SG350-28P
|
41.66
|
56.0
|
|
SG350-28MP
|
41.66
|
56.0
|
|
SG350-28SFP
|
41.66
|
56.0
|
|
SG350-52
|
77.38
|
104.0
|
|
SG350-52P
|
77.38
|
104.0
|
|
SG350-52MP
|
77.38
|
104.0
|
Layer 2 Switching
|
Spanning Tree Protocol
|
Standard 802.1d Spanning Tree support
Fast convergence using 802.1w (Rapid Spanning Tree [RSTP]), enabled by default
Multiple Spanning Tree instances using 802.1s (MSTP); 8 instances are supported
Per-VLAN Spanning Tree Plus (PVST+) and Rapid PVST+ (RPVST+); 126 instances are supported
|
Port grouping/link aggregation
|
Support for IEEE 802.3ad Link Aggregation Control Protocol (LACP)
● Up to 8 groups
● Up to 8 ports per group with 16 candidate ports for each (dynamic) 802.3ad link aggregation
|
VLAN
|
Support for up to 4,094 VLANs simultaneously
Port-based and 802.1Q tag-based VLANs; MAC-based VLAN; protocol-based VLAN; IP subnet-based VLAN,
Management VLAN
Private VLAN with promiscuous, isolated, and community port
Private VLAN Edge (PVE), also known as protected ports, with multiple uplinks
Guest VLAN; unauthenticated VLAN
Dynamic VLAN assignment via RADIUS server along with 802.1x client authentication
CPE VLAN
|
Voice VLAN
|
Voice traffic is automatically assigned to a voice-specific VLAN and treated with appropriate levels of QoS
Auto voice capabilities deliver networkwide zero-touch deployment of voice endpoints and call control devices
|
Multicast TV VLAN
|
Multicast TV VLAN allows the single multicast VLAN to be shared in the network while subscribers remain in separate VLANs. This feature is also known as Multicast VLAN Registration (MVR)
|
VLAN Translation
|
Support for VLAN One-to-One Mapping. In VLAN One-to-One Mapping, on an edge interface C-VLANs are mapped to S-VLANs and the original C-VLAN tags are replaced by the specified S-VLAN
|
Q-in-Q
|
VLANs transparently cross a service provider network while isolating traffic among customers
|
Selective Q-in-Q
|
Selective Q-in-Q is an enhancement to the basic Q-in-Q feature and provides, per edge interface, multiple mappings of different C-VLANs to separate S-VLANs
Selective Q-in-Q also allows configuring of Ethertype (TPID) of the S-VLAN tag
Layer 2 protocol tunneling over Q-in-Q is also supported
|
Generic VLAN Registration Protocol (GVRP)/Generic Attribute Registration Protocol (GARP)
|
Generic VLAN Registration Protocol (GVRP) and Generic Attribute Registration Protocol (GARP) enable automatic propagation and configuration of VLANs in a bridged domain
|
Unidirectional Link Detection (UDLD)
|
UDLD monitors physical connection to detect unidirectional links caused by incorrect wiring or cable/port faults to prevent forwarding loops and blackholing of traffic in switched networks
|
Dynamic Host Configuration Protocol (DHCP) Relay at Layer 2
|
Relay of DHCP traffic to DHCP server in different VLAN; works with DHCP Option 82
|
Internet Group Management Protocol (IGMP) versions 1, 2, and 3 snooping
|
IGMP limits bandwidth-intensive multicast traffic to only the requesters; supports 2K multicast groups (source-specific multicasting is also supported)
|
IGMP Querier
|
IGMP querier is used to support a Layer 2 multicast domain of snooping switches in the absence of a multicast router
|
Head-Of-Line (HOL) blocking
|
HOL blocking prevention
|
Loopback Detection
|
Loopback detection provides protection against loops by transmitting loop protocol packets out of ports on which loop protection has been enabled. It operates independently of STP
|
Layer 3
|
IPv4 routing
|
Wirespeed routing of IPv4 packets
Up to 990 static routes and up to 128 IP interfaces
|
IPv6 routing
|
Wirespeed routing of IPv6 packets
|
Layer 3 Interface
|
Configuration of Layer 3 interface on physical port, LAG, VLAN interface, or loopback interface
|
Classless Interdomain Routing (CIDR)
|
Support for classless interdomain routing
|
Policy-Based Routing (PBR)
|
Flexible routing control to direct packets to different next hop based on IPv4 or IPv6 ACL
|
DHCP Server
|
Switch functions as an IPv4 DHCP server serving IP addresses for multiple DHCP pools/scopes
Support for DHCP options
|
DHCP relay at Layer 3
|
Relay of DHCP traffic across IP domains
|
User Datagram Protocol (UDP) relay
|
Relay of broadcast information across Layer 3 domains for application discovery or relaying of bootP/DHCP packets
|
Security
|
Secure Shell (SSH) Protocol
|
SSH is a secure replacement for Telnet traffic. SCP also uses SSH. SSH v1 and v2 are supported
|
Secure Sockets Layer (SSL)
|
SSL support: Encrypts all HTTPS traffic, allowing highly secure access to the browser-based management GUI in the switch
|
IEEE 802.1X (Authenticator role)
|
802.1X: RADIUS authentication and accounting, MD5 hash; guest VLAN; unauthenticated VLAN, single/multiple host mode and single/multiple sessions
Supports time-based 802.1X
Dynamic VLAN assignment
|
Web-based authentication
|
Web based authentication provides network admission control through web browser to any host devices and operating systems
|
STP Bridge Protocol Data Unit (BPDU) Guard
|
A security mechanism to protect the network from invalid configurations. A port enabled for BPDU Guard is shut down if a BPDU message is received on that port
|
STP Root Guard
|
This prevents edge devices not in the network administrator’s control from becoming Spanning Tree Protocol root nodes
|
STP loopback guard
|
Provides additional protection against Layer 2 forwarding loops (STP loops)
|
DHCP snooping
|
Filters out DHCP messages with unregistered IP addresses and/or from unexpected or untrusted interfaces. This prevents rogue devices from behaving as DHCP Servers
|
IP Source Guard (IPSG)
|
When IP Source Guard is enabled at a port, the switch filters out IP packets received from the port if the source IP addresses of the packets have not been statically configured or dynamically learned from DHCP snooping. This prevents IP Address Spoofing
|
Dynamic ARP Inspection (DAI)
|
The switch discards ARP packets from a port if there are no static or dynamic IP/MAC bindings or if there is a discrepancy between the source or destination addresses in the ARP packet. This prevents man-in-the-middle attacks
|
IP/MAC/Port Binding (IPMB)
|
The preceding features (DHCP Snooping, IP Source Guard, and Dynamic ARP Inspection) work together to prevent DOS attacks in the network, thereby increasing network availability
|
Secure Core Technology (SCT)
|
Makes sure that the switch will receive and process management and protocol traffic no matter how much traffic is received
|
Secure Sensitive Data (SSD)
|
A mechanism to manage sensitive data (such as passwords, keys, and so on) securely on the switch, populating this data to other devices, and secure autoconfig. Access to view the sensitive data as plaintext or encrypted is provided according to the user-configured access level and the access method of the user
|
Trustworthy systems
|
Trustworthy systems provide a highly secure foundation for Cisco products
Run-time defenses (Executable Space Protection [X-Space], Address Space Layout Randomization [ASLR], Built-In Object Size Checking [BOSC])
|
Private VLAN
|
Private VLAN provides security and isolation between switch ports, which helps ensure that users cannot snoop on other users’ traffic; supports multiple uplinks
|
Layer 2 isolation Private VLAN Edge (PVE) with community VLAN
|
PVE (also known as protected ports) provides Layer 2 isolation between devices in the same VLAN, supports multiple uplinks
|
Port security
|
Ability to lock source MAC addresses to ports and limits the number of learned MAC addresses
|
RADIUS/TACACS+
|
Supports RADIUS and TACACS authentication. Switch functions as a client
|
|
RADIUS accounting
|
The RADIUS accounting functions allow data to be sent at the start and end of services, indicating the amount of resources (such as time, packets, bytes, and so on) used during the session
|
|
Storm control
|
Broadcast, multicast, and unknown unicast
|
|
DoS prevention
|
Denial-Of-Service (DOS) attack prevention
|
|
Multiple user privilege levels in CLI
|
Level 1, 7, and 15 privilege levels
|
|
ACLs
|
Support for up to 1K rules
Drop or rate limit based on source and destination MAC, VLAN ID or IPv4 or IPv6 address, IPv6 flow label, protocol, port, Differentiated Services Code Point (DSCP)/IP precedence, TCP/UDP source and destination ports, 802.1p priority, Ethernet type, Internet Control Message Protocol (ICMP) packets, IGMP packets, TCP flag; ACL can be applied on both ingress and egress sides
Time-based ACLs supported
|
|
Quality of Service
|
|
Priority levels
|
8 hardware queues
|
|
Scheduling
|
Strict priority and Weighted Round-Robin (WRR)
Queue assignment based on DSCP and class of service (802.1p/CoS)
|
|
Class of service
|
Port based; 802.1p VLAN priority based; IPv4/v6 IP precedence/Type of Service (ToS)/DSCP based; Differentiated Services (DiffServ); classification and remarking ACLs, trusted QoS
Queue assignment based on DSCP and class of service (802.1p/CoS)
|
|
Rate limiting
|
Ingress policer; egress shaping and rate control; per VLAN, per port, and flow based; 2R3C policing
|
|
Congestion avoidance
|
A TCP congestion avoidance algorithm is required to minimize and prevent global TCP loss synchronization
|
|
Standards
|
|
Standards
|
IEEE 802.3 10BASE-T Ethernet, IEEE 802.3u 100BASE-TX Fast Ethernet, IEEE 802.3ab 1000BASE-T Gigabit Ethernet, IEEE 802.3ad Link Aggregation Control Protocol, IEEE 802.3z Gigabit Ethernet, IEEE 802.3x Flow Control, IEEE 802.1D (STP, GARP, and GVRP), IEEE 802.1Q/p VLAN, IEEE 802.1w Rapid STP, IEEE 802.1s Multiple STP, IEEE 802.1X Port Access Authentication, IEEE 802.3af, IEEE 802.3at, IEEE 802.1AB Link Layer Discovery Protocol, IEEE 802.3az Energy Efficient Ethernet, RFC 768, RFC 783, RFC 791, RFC 792, RFC 793, RFC 813, RFC 826, RFC 879, RFC 896, RFC 854, RFC 855, RFC 856, RFC 858, RFC 894, RFC 919, RFC 920, RFC 922, RFC 950, RFC 951, RFC 1042, RFC 1071, RFC 1123, RFC 1141, RFC 1155, RFC 1157, RFC 1213, RFC 1215, RFC 1286, RFC 1350, RFC 1442, RFC 1451, RFC 1493, RFC 1533, RFC 1541, RFC 1542, RFC 1573, RFC 1624, RFC 1643, RFC 1700, RFC 1757, RFC 1867, RFC 1907, RFC 2011, RFC 2012, RFC 2013, RFC 2030, RFC 2131, RFC 2132, RFC 2233, RFC 2576, RFC 2616, RFC 2618, RFC 2665, RFC 2666, RFC 2674, RFC 2737, RFC 2819, RFC 2863, RFC 3164, RFC 3176, RFC 3411, RFC 3412, RFC 3413, RFC 3414, RFC 3415, RFC 3416, RFC 4330
|
|
IPv6
|
|
IPv6
|
IPv6 host mode; IPv6 over Ethernet; Dual IPv6/IPv4 stack
IPv6 neighbor and router discovery (ND); IPv6 stateless address autoconfiguration; Path Maximum Transmission Unit (MTU) discovery
Duplicate Address Detection (DAD); ICMP version 6
DHCPv6 stateful client
IPv6 over IPv4 network with Intrasite Automatic Tunnel Addressing Protocol (ISATAP) tunnel support
USGv6 and IPv6 Gold Logo certified
|
|
IPv6 QoS
|
Prioritize IPv6 packets in hardware
|
|
IPv6 ACL
|
Drop or rate limit IPv6 packets in hardware
|
|
IPv6 First Hop Security
|
RA guard
ND inspection
DHCPv6 guard
Neighbor binding table (snooping and static entries)
Neighbor binding integrity check
|
|
Multicast Listener Discovery (MLD v1/2) snooping
|
Deliver IPv6 multicast packets only to the required receivers
|
|
IPv6 applications
|
Web/SSL, Telnet server/SSH, ping, traceroute, Simple Network Time Protocol (SNTP), Trivial File Transfer Protocol (TFTP), SNMP, RADIUS, syslog, DNS client, Telnet Client, DHCP Client, DHCP Autoconfig, IPv6 DHCP Relay, TACACS+
|
|
IPv6 RFCs supported
|
RFC 4443 (which obsoletes RFC2463): ICMP version 6
RFC 4291 (which obsoletes RFC 3513): IPv6 address architecture
RFC 4291: IPv6 addressing architecture
RFC 2460: IPv6 specification
RFC 4861 (which obsoletes RFC 2461): neighbor discovery for IPv6
RFC 4862 (which obsoletes RFC 2462): IPv6 stateless address autoconfiguration
RFC 1981: path MTU discovery
RFC 4007: IPv6 scoped address architecture
RFC 3484: default address selection mechanism
RFC 5214 (which obsoletes RFC 4214): ISATAP tunneling
RFC 4293: MIB IPv6: textual conventions and general group
RFC 3595: textual conventions for IPv6 flow label
|
|
Management
|
|
Web user interface
|
Built-in switch configuration utility for easy browser-based device configuration (HTTP/HTTPS)
Supports simple and advanced mode, configuration, wizards, customizable dashboard, system maintenance, monitoring, online help, and universal search
|
|
Smart Network Application
|
Smart Network Application (SNA) is an innovative network-level monitoring and management tool embedded in Cisco 100 to 500 Series switches. It can discover network topology, display link status, monitor events, apply configurations, and upgrade software images across multiple switches in the network
(Note: Management of your network using Smart Network Application requires the use of either a 350, 350X, or 550X Series switch model as a part of your network)
|
|
SNMP
|
SNMP versions 1, 2c, and 3 with support for traps, and SNMP version 3 User-based Security Model (USM)
|
|
Standard MIBs
|
lldp-MIB
lldpextdot1-MIB
lldpextdot3-MIB
lldpextmed-MIB
rfc2674-MIB
rfc2575-MIB
rfc2573-MIB
rfc2233-MIB
rfc2013-MIB
rfc2012-MIB
rfc2011-MIB
RFC-1212
RFC-1215
SNMPv2-CONF
SNMPv2-TC
p-bridge-MIB
q-bridge-MIB
rfc1389-MIB
rfc1493-MIB
rfc1611-MIB
rfc1612-MIB
rfc1850-MIB
rfc1907-MIB
rfc2571-MIB
rfc2572-MIB
rfc2574-MIB
rfc2576-MIB
rfc2613-MIB
rfc2665-MIB
|
rfc2668-MIB
rfc2737-MIB
rfc2925-MIB
rfc3621-MIB
rfc4668-MIB
rfc4670-MIB
trunk-MIB
tunnel-MIB
udp-MIB
draft-ietf-bridge-8021x-MIB
draft-ietf-bridge-rstpmib-04-MIB
draft-ietf-hubmib-etherif-mib-v3-00-MIB
draft-ietf-syslog-device-MIB
ianaaddrfamnumbers-MIB
ianaifty-MIB
ianaprot-MIB
inet-address-MIB
ip-forward-MIB
ip-MIB
RFC1155-SMI
RFC1213-MIB
SNMPv2-MIB
SNMPv2-SMI
SNMPv2-TM
RMON-MIB
rfc1724-MIB
dcb-raj-DCBX-MIB-1108-MIB
rfc1213-MIB
rfc1757-MIB
|
|
Private MIBs
|
CISCOSB-lldp-MIB CISCOSB-
brgmulticast-MIB CISCOSB-
bridgemibobjects-MIB
CISCOSB-bonjour-MIB
CISCOSB-dhcpcl-MIB
CISCOSB-MIB
CISCOSB-wrandomtaildrop-MIB
CISCOSB-traceroute-MIB
CISCOSB-telnet-MIB
CISCOSB-stormctrl-MIB
CISCOSB-ssh-MIB
CISCOSB-socket-MIB
CISCOSB-sntp-MIB
CISCOSB-smon-MIB
CISCOSB-phy-MIB
CISCOSB-multisessionterminal-MIB
CISCOSB-mri-MIB
CISCOSB-jumboframes-MIB
CISCOSB-gvrp-MIB
CISCOSB-endofmib-MIB
CISCOSB-dot1x-MIB
CISCOSB-deviceparams-MIB
CISCOSB-cli-MIB
CISCOSB-cdb-MIB
CISCOSB-brgmacswitch-MIB
CISCOSB-3sw2swtables-MIB
CISCOSB-smartPorts-MIB
CISCOSB-tbi-MIB
CISCOSB-macbaseprio-MIB
CISCOSB-policy-MIB
CISCOSB-env_mib
CISCOSB-sensor-MIB
CISCOSB-aaa-MIB
CISCOSB-application-MIB
CISCOSB-bridgesecurity-MIB
CISCOSB-copy-MIB
CISCOSB-CpuCounters-MIB
CISCOSB-Custom1BonjourService-MIB
CISCOSB‑dhcp-MIB
CISCOSB-dlf-MIB
CISCOSB-dnscl-MIB
CISCOSB-embweb-MIB
CISCOSB-fft-MIB
CISCOSB-file-MIB
CISCOSB-greeneth-MIB
CISCOSB-interfaces-MIB
CISCOSB-interfaces_recovery-MIB
|
CISCOSB-ip-MIB
CISCOSB-iprouter-MIB
CISCOSB-ipv6-MIB
CISCOSB-mnginf-MIB
CISCOSB-lcli-MIB
CISCOSB-localization-MIB
CISCOSB-mcmngr-MIB
CISCOSB-mng-MIB
CISCOSB-physdescription-MIB
CISCOSB-Poe-MIB
CISCOSB-protectedport-MIB
CISCOSB-rmon-MIB
CISCOSB-rs232-MIB
CISCOSB-SecuritySuite-MIB
CISCOSB-snmp-MIB
CISCOSB-specialbpdu-MIB
CISCOSB-banner-MIB
CISCOSB-syslog-MIB
CISCOSB-TcpSession-MIB
CISCOSB-traps-MIB
CISCOSB-trunk-MIB
CISCOSB-tuning-MIB
CISCOSB-tunnel-MIB
CISCOSB-udp-MIB
CISCOSB-vlan-MIB
CISCOSB-ipstdacl-MIB
CISCOSB-eee-MIB
CISCOSB-ssl-MIB
CISCOSB-qosclimib-MIB
CISCOSB-digitalkeymanage-MIB
CISCOSB-tbp-MIB
CISCOSMB-MIB
CISCOSB-secsd-MIB
CISCOSB-draft-ietf-entmib-sensor-MIB
CISCOSB-draft-ietf-syslog-device-MIB
CISCOSB-rfc2925-MIB
CISCO-SMI-MIB
CISCOSB-DebugCapabilities-MIB
CISCOSB-CDP-MIB
CISCOSB-vlanVoice-MIB
CISCOSB-EVENTS-MIB
CISCOSB-sysmng-MIB
CISCOSB-sct-MIB
CISCO-TC-MIB
CISCO-VTP-MIB
CISCO-CDP-MIB
|
|
Remote Monitoring (RMON)
|
Embedded RMON software agent supports 4 RMON groups (history, statistics, alarms, and events) for enhanced traffic management, monitoring, and analysis
|
|
IPv4 and IPv6 dual stack
|
Coexistence of both protocol stacks to ease migration
|
|
Firmware upgrade
|
● Web browser upgrade (HTTP/HTTPS) and TFTP and upgrade over SCP running over SSH
● Upgrade can be initiated through console port as well
● Dual images for resilient firmware upgrades
|
|
Port mirroring
|
Traffic on a port can be mirrored to another port for analysis with a network analyzer or RMON probe. Up to 8 source ports can be mirrored to one destination port. A single session is supported
|
|
VLAN mirroring
|
Traffic from a VLAN can be mirrored to a port for analysis with a network analyzer or RMON probe. Up to 8 source VLANs can be mirrored to one destination port. A single session is supported
|
|
DHCP (options 12, 66, 67, 82, 129, and 150)
|
DHCP options facilitate tighter control from a central point (DHCP server) to obtain IP address, autoconfiguration (with configuration file download), DHCP relay, and hostname
|
|
Secure Copy (SCP)
|
Securely transfer files to and from the switch
|
|
Autoconfiguration with Secure Copy (SCP) file download
|
Enables secure mass deployment with protection of sensitive data
|
|
Text-editable config files
|
Config files can be edited with a text editor and downloaded to another switch, facilitating easier mass deployment
|
|
Smartports
|
Simplified configuration of QoS and security capabilities
|
|
Auto Smartports
|
Applies the intelligence delivered through the Smartport roles and applies it automatically to the port based on the devices discovered over Cisco Discovery Protocol or LLDP-MED. This facilitates zero-touch deployments
|
|
Textview CLI
|
Scriptable command-line interface. A full CLI as well as a menu-based CLI is supported. User privilege levels 1, 7, and 15 are supported for the CLI
|
|
Cloud services
|
Support for Cisco FindIT Network Manager and Cisco Active Advisor
|
|
Embedded Probe for FindIT Network Manager
|
Support for embedded FindIT Network Probe running on the switch. Eliminates the need to set up a separate hardware or virtual machine for the FindIT Network Probe on site
|
|
Cisco Network Plug and Play (PnP) agent
|
The Cisco Network Plug and Play solution provides a simple, secure, unified, and integrated offering to ease new branch or campus device rollouts or for provisioning updates to an existing network. The solution provides a unified approach to provision Cisco routers, switches, and wireless devices with a near-zero-touch deployment experience
Supports Cisco PnP Connect
|
|
Localization
|
Localization of GUI and documentation into multiple languages
|
|
Login banner
|
Configurable multiple banners for web as well as CLI
|
|
Other management
|
Traceroute; single IP management; HTTP/HTTPS; SSH; RADIUS; port mirroring; TFTP upgrade; DHCP client; BOOTP; SNTP; Xmodem upgrade; cable diagnostics; ping; syslog; Telnet client (SSH secure support); automatic time settings from Management Station
|
|
Time-based port operation
|
Link up or down based on user-defined schedule (when the port is administratively up)
|
|
Time-based PoE
|
Capability for power to be on or off based on a user-defined schedule to save energy
|
|
Power Efficiency
|
|
Energy Detect
|
Automatically turns power off on Gigabit Ethernet and 10/100 RJ-45 port when detecting link down. Active mode is resumed without loss of any packets when the switch detects the link up
|
|
Cable length detection
|
Adjusts the signal strength based on the cable length for Gigabit Ethernet models. Reduces the power consumption for shorter cables
|
|
EEE Compliant (802.3az)
|
Supports IEEE 802.3az on all copper Gigabit Ethernet ports
|
|
Disable port LEDs
|
LEDs can be manually turned off to save on energy
|
|
Time-based port operation
|
Link up or down based on user-defined schedule (when the port is administratively up)
|
|
Time-based PoE
|
Capability for power to be on or off based on a user-defined schedule to save energy
|
|
General
|
|
Jumbo frames
|
Frame sizes up to 9K bytes. The default MTU is 2K bytes
|
|
MAC table
|
16K addresses
|
|
Discovery
|
|
Bonjour
|
The switch advertises itself using the Bonjour protocol
|
|
Link Layer Discovery Protocol (LLDP) (802.1ab) with LLDP‑MED extensions
|
LLDP allows the switch to advertise its identification, configuration, and capabilities to neighboring devices that store the data in a MIB. LLDP-MED is an enhancement to LLDP that adds the extensions needed for IP phones
|
|
Cisco Discovery Protocol
|
The switch advertises itself using the Cisco Discovery Protocol. It also learns the connected device and its characteristics via Cisco Discovery Protocol
|
|
Power over Ethernet (PoE)
|
|
802.3af PoE, 802.3at PoE+, or 60W PoE are delivered over the RJ-45 ports within the listed power budgets
|
The following switches support 802.3at PoE+, 802.3af PoE, and Cisco prestandard (legacy) PoE on any of the RJ45 network ports. 60W PoE is also supported on selected RJ-45 network ports
Maximum power of 60W is delivered to any of the 60W PoE ports, and maximum power of 30W is delivered to any of the other RJ45 network ports, until the PoE budget for the switch is reached
The total power available for PoE per switch is as follows
|
|
|
Model Name
|
Power Dedicated to PoE
|
Number of Ports That Support PoE
|
|
|
SF352-08P
|
62W
|
8
|
|
|
SF352-08MP
|
128W
|
8
|
|
|
SF350-24P
|
185W
|
24 (4 support 60W PoE)
|
|
|
SF350-24MP
|
375W
|
24 (4 support 60W PoE)
|
|
|
SF350-48P
|
382W
|
48 (8 support 60W PoE)
|
|
|
SF350-48MP
|
740W
|
48 (8 support 60W PoE)
|
|
|
SG350-8PD
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124W
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8
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SG350-10P
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62W
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8
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|
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SG355-10P
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62W
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8
|
|
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SG350-10MP
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124W
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8
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|
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SG350-28P
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195W
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24 (4 support 60W PoE)
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SG350-28MP
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382W
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24 (4 support 60W PoE)
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SG350-52P
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375W
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48 (8 support 60W PoE)
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|
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SG350-52MP
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740W
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48 (8 support 60W PoE)
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PoE powered device and PoE passthrough
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In addition to AC power, compact switch models can work as PoE powered devices and be powered by PoE switches connected to the uplink ports. The switch can also pass through the power to downstream PoE end devices if required
Maximum of 60W can be drawn per uplink port if the peer PoE switch supports 60W PoE. When multiple uplink ports are connected to PoE switches, the power drawn from these ports is combined
When AC power is connected and functioning properly, it will have priority over the PoE powered device function. The PoE powered device function will then act as a backup power source to the AC power. The PoE powered device function will be the primary power source for the switch if AC power is not connected
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