GRE tunnels and how they transmit multicast packets

IGMP snooping

Multicast - NX-OS and IOS config comparison

Multicast OIL IIF mroute table

Multicast PIM dense mode

Multicast PIM send-rp-announce-scope

Multicast PIM sparse mode

Multicast PIM sparse-dense mode


[Protocol Independent Multicast (PIM)](/multicast-pim) is a [Multicast](/multicast) routing protocol and is currently the only multicast routing protocol fully supported by Cisco IOS devices.

PIM **depends** 100% on the information in the **[unicast](/unicast-traffic) [routing table](/routing-table)** but it doesn’t matter which unicast [routing](/routing) protocol you use to fill it. Other multicast routing protocols like DVMRP and MOSPF don’t use the unicast routing table but **build their own tables**.

PIM supports three different modes:

- [PIM dense mode](/multicast-pim-dense-mode)
- [PIM Sparse mode](/multicast-pim-sparse-mode)
- [PIM Sparse-Dense mode](/multicast-pim-sparse-dense-mode)

## Links

https://networklessons.com/multicast/multicast-pim-dense-mode

Protocol Independent Multicast (PIM)

PAgP

PBR - Policy Based Routing

PBR - Transport Layer port number

PBR - load balancing

PBR - matching prefix lists

PBR - route-map and ACL deny statements not supported

PBR - set interface command

PBR next hop recursive

PBR next hop verify availability

PBR next-hop and default next-hop

PPPoE

PSTN

PTP - Best Master Clock Algorithm

PTP - Clock Types

PTP - Interface Roles

PTP - Offset and Delay times

Passive interface

Physical layer - Copper medium

Physical layer - Optical fiber medium

Physical layer - Wireless medium

Physical layer - encoding

Physical layer - media

Physical layer - modem

Physical layer - modulation

Physical layer Carrier Wave

Ping - Specify ToS

Ping - common reasons for failure

Ping - debug commands

Ping - extended feature

Ping - possible ping responses

Ping - specifying size

Ping - sweep range of sizes

Ping - troubleshooting concepts

Ping

PoE - Understanding Maximum Power

PoE Passive

PoE Standards-based

PoE over Gigabit Ethernet

PoE power sourcing equipment (PSE)

PoE powered device (PD)

PoE what is it

Point-to-Point Protocol (PPP)

Policy Based Routing acts on incoming traffic

Prefix Lists - Operators

Prefix Lists

Private VLANs - across a trunk

Private VLANs - non-operational type

Private WAN

Protocol Data Unit (PDU)

Protocols with LFA support

Proxy ARP Best Practices

Pseudowire

Public Key Certificate

Public vs Private AS with multiple ISPs

Python - Parsing output of show commands

Python - Performing Tasks Concurrently

Python - viewing code using trinket.io

Python Paramiko SSH

Python stdin, stdout, stderr

QOS - Multilayer Switch QoS (MLS)

QoS - Assured Forwarding PHB values

QoS - Bc and Be bucket sizes

QoS - CBWFQ

QoS - Classification by IP

QoS - CoS to DSCP and DSCP to CoS mapping

QoS - Hierarchical QoS

QoS - Jitter

QoS - LLQ applied only outbound

QoS - LLQ bandwidth configuration

QoS - LLQ priority commands

QoS - Nested policy maps

QoS - Policing command syntax

QoS - QoS Groups

QoS - RSVP bandwidth and flow reservations

QoS - Recommended router images for QoS labs in GNS3

QoS - Tail Drop

QoS - Using CBWFQ with traffic shaping

QoS - WRED traffic profile thresholds

QoS - applying policies

QoS - auto qos trust

QoS - classification

QoS - effects of bandwidth interface command

QoS - is WRED really a congestion avoidance mechanism

QoS - key and nonkey fields

QoS - marking

QoS CBWFQ traffic allocation when there are empty queues

QoS CoS vs DSCP

QoS Hardware Queues vs Software Queues

QoS Hierarchical Queuing Framework (HQF)

QoS Impact of Priority Queue on Class-Default Traffic

QoS Mechanism Triggers

QoS Modular QoS CLI (MQC)

QoS Network Based Application Recognition (NBAR)

QoS RSVP Path message

QoS RSVP Resv message

QoS Resource Reservation Protocol (RSVP)

QoS Software Queues Scheduling

QoS Traffic Shaping Parameters

QoS hardware queues scheduling

Protocol Independent Multicast (PIM)

Links

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