doc: use :term:, will add glossary later

Signed-off-by: Quentin Young <qlyoung@cumulusnetworks.com>
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Quentin Young 2018-01-26 15:57:47 -05:00
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4 changed files with 20 additions and 20 deletions

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@ -6,7 +6,7 @@ EIGRP
EIGRP -- Routing Information Protocol is widely deployed interior gateway
routing protocol. EIGRP was developed in the 1990's. EIGRP is a
@dfn{distance-vector} protocol and is based on the @dfn{dual} algorithms.
:term:`distance-vector` protocol and is based on the :term:`dual` algorithms.
As a distance-vector protocol, the EIGRP router send updates to its
neighbors as networks change, thus allowing the convergence to a
known topology.
@ -33,7 +33,7 @@ EIGRP is like below:
# zebra -d
# eigrpd -d
Please note that *zebra* must be invoked before *eigrpd*.
@ -100,7 +100,7 @@ EIGRP Configuration
router eigrp 1
network 10.0.0.0/8
!
Passive interface
@ -114,7 +114,7 @@ EIGRP Configuration
interface, all receiving packets are ignored and eigrpd does
not send either multicast or unicast EIGRP packets except to EIGRP neighbors
specified with `neighbor` command. The interface may be specified
as `default` to make eigrpd default to passive on all interfaces.
as `default` to make eigrpd default to passive on all interfaces.
The default is to be passive on all interfaces.
@ -218,9 +218,9 @@ The command displays all EIGRP routes.
Codes: P - Passive, A - Active, U - Update, Q - Query, R - Reply
r - reply Status, s - sia Status
P 10.0.2.0/24, 1 successors, FD is 256256, serno: 0
P 10.0.2.0/24, 1 successors, FD is 256256, serno: 0
via Connected, enp0s3
EIGRP Debug Commands
====================

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@ -8,9 +8,9 @@ OSPF Fundamentals
.. index:: Distance-vector routing protocol
@acronym{OSPF} is, mostly, a link-state routing protocol. In contrast
to @dfn{distance-vector} protocols, such as @acronym{RIP} or
@acronym{BGP}, where routers describe available @dfn{paths} (i.e@. routes)
to each other, in @dfn{link-state} protocols routers instead
to :term:`distance-vector` protocols, such as @acronym{RIP} or
@acronym{BGP}, where routers describe available :term:`paths` (i.e@. routes)
to each other, in :term:`link-state` protocols routers instead
describe the state of their links to their immediate neighbouring
routers.
@ -25,7 +25,7 @@ routers.
Each router describes their link-state information in a message known
as an @acronym{LSA,Link State Advertisement}, which is then propogated
through to all other routers in a link-state routing domain, by a
process called @dfn{flooding}. Each router thus builds up an
process called :term:`flooding`. Each router thus builds up an
@acronym{LSDB,Link State Database} of all the link-state messages. From
this collection of LSAs in the LSDB, each router can then calculate the
shortest path to any other router, based on some common metric, by
@ -131,7 +131,7 @@ broadly classed as:
*LSA Flooding*
OSPF defines several related mechanisms, used to manage synchronisation of
@acronym{LSDB}s between neighbours as neighbours form adjacencies and
the propogation, or @dfn{flooding} of new or updated @acronym{LSA}s.
the propogation, or :term:`flooding` of new or updated @acronym{LSA}s.
:ref:`OSPF_Flooding`.
@ -143,13 +143,13 @@ broadly classed as:
and independent link-state areas. Each area must be connected to a
common backbone area by an @acronym{ABR,Area Boundary Router}. These
@acronym{ABR} routers are responsible for summarising the link-state
routing information of an area into @dfn{Summary LSAs}, possibly in a
routing information of an area into :term:`Summary LSAs`, possibly in a
condensed (i.e. aggregated) form, and then originating these summaries
into all other areas the @acronym{ABR} is connected to.
Note that only summaries and external routes are passed between areas.
As these describe *paths*, rather than any router link-states,
routing between areas hence is by @dfn{distance-vector}, @strong{not}
routing between areas hence is by :term:`distance-vector`, @strong{not}
link-state.
:ref:`OSPF_Areas`.
@ -208,13 +208,13 @@ All LSAs share a common header with the following information:
from their @acronym{LSDB}s.
The value nominally is one of seconds. An age of 3600, i.e. 1 hour, is
called the @dfn{MaxAge}. MaxAge LSAs are ignored in routing
called the :term:`MaxAge`. MaxAge LSAs are ignored in routing
calculations. LSAs must be periodically refreshed by their Advertising
Router before reaching MaxAge if they are to remain valid.
Routers may deliberately flood LSAs with the age artificially set to
3600 to indicate an LSA is no longer valid. This is called
@dfn{flushing} of an LSA@.
:term:`flushing` of an LSA@.
It is not abnormal to see stale LSAs in the LSDB, this can occur where
a router has shutdown without flushing its LSA(s), e.g. where it has
@ -236,7 +236,7 @@ protocol.
Instances of these LSAs are specific to the link-state area in which
they are originated. Routes calculated from these two LSA types are
called @dfn{intra-area routes}.
called :term:`intra-area routes`.
* Router LSA
@ -296,7 +296,7 @@ called @dfn{intra-area routes}.
with the remote router is Full.
Stub links may also be used as a way to describe links on which OSPF is
*not* spoken, known as @dfn{passive interfaces}, see :ref:`OSPF_passive-interface,,passive-interface`.
*not* spoken, known as :term:`passive interfaces`, see :ref:`OSPF_passive-interface,,passive-interface`.
* Network LSA

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@ -738,7 +738,7 @@ Redistribute routes to OSPF
external routes are not permitted.
Note that for connected routes, one may instead use
@dfn{passive-interface}, see :ref:`OSPF_passive-interface`.
:term:`passive-interface`, see :ref:`OSPF_passive-interface`.
.. index:: {OSPF Command} {default-information originate} {}

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@ -6,8 +6,8 @@ RIP
RIP -- Routing Information Protocol is widely deployed interior gateway
protocol. RIP was developed in the 1970s at Xerox Labs as part of the
XNS routing protocol. RIP is a @dfn{distance-vector} protocol and is
based on the @dfn{Bellman-Ford} algorithms. As a distance-vector
XNS routing protocol. RIP is a :term:`distance-vector` protocol and is
based on the :term:`Bellman-Ford` algorithms. As a distance-vector
protocol, RIP router send updates to its neighbors periodically, thus
allowing the convergence to a known topology. In each update, the
distance to any given network will be broadcasted to its neighboring