argus-netconf-exporter/exp/yangcli/h3c-yang/openconfig-terminal-device@2021-07-29.yang
2025-11-28 14:35:21 +08:00

1673 lines
50 KiB
YANG

module openconfig-terminal-device {
yang-version "1";
// namespace
namespace "http://openconfig.net/yang/terminal-device";
prefix "oc-opt-term";
import openconfig-types { prefix oc-types; }
import openconfig-transport-types { prefix oc-opt-types; }
import openconfig-if-ethernet { prefix oc-eth; }
import openconfig-interfaces { prefix oc-if; }
import openconfig-platform { prefix oc-platform; }
import openconfig-platform-transceiver { prefix oc-transceiver; }
import openconfig-lldp { prefix oc-lldp; }
import openconfig-extensions { prefix oc-ext; }
import ietf-yang-types { prefix yang; }
import openconfig-yang-types { prefix oc-yang; }
// meta
organization "OpenConfig working group";
contact
"OpenConfig working group
www.openconfig.net";
description
"This module describes a terminal optics device model for
managing the terminal systems (client and line side) in a
DWDM transport network.
Elements of the model:
physical port: corresponds to a physical, pluggable client
port on the terminal device. Examples includes 10G, 40G, 100G
(e.g., 10x10G, 4x25G or 1x100G) and 400G/1T in the future.
Physical client ports will have associated operational state or
PMs.
physical channel: a physical lane or channel in the
physical client port. Each physical client port has 1 or more
channels. An example is 100GBASE-LR4 client physical port having
4x25G channels. Channels have their own optical PMs and can be
monitored independently within a client physical port (e.g.,
channel power). Physical client channels are defined in the
model as part of a physical client port, and are modeled
primarily for reading their PMs.
logical channel: a logical grouping of logical grooming elements
that may be assigned to subsequent grooming stages for
multiplexing / de-multiplexing, or to an optical channel for
line side transmission. The logical channels can represent, for
example, an ODU/OTU logical packing of the client
data onto the line side. Tributaries are similarly logical
groupings of demand that can be represented in this structure and
assigned to an optical channel. Note that different types of
logical channels may be present, each with their corresponding
PMs.
optical channel: corresponds to an optical carrier and is
assigned a wavelength/frequency. Optical channels have PMs
such as power, BER, and operational mode.
Directionality:
To maintain simplicity in the model, the configuration is
described from client-to-line direction. The assumption is that
equivalent reverse configuration is implicit, resulting in
the same line-to-client configuration.
Physical layout:
The model does not assume a particular physical layout of client
and line ports on the terminal device (e.g., such as number of
ports per linecard, separate linecards for client and line ports,
etc.).";
oc-ext:openconfig-version "1.9.0";
revision "2021-07-29" {
description
"Add several coherent performance monitors to optical channel.
Re-group and add PHY-related performance monitors to optical
channel and logical channel.";
reference "1.9.0";
}
revision "2021-02-23" {
description
"Small additions to support ZR transceivers. Adds a new
ingress type of interface and a client mapping mode leaf.";
reference "1.8.0";
}
revision "2020-05-09" {
description
"Remove references from read-write contexts to read-only
contexts in when statements.";
reference "1.7.3";
}
revision "2019-11-28" {
description
"Additional xpath fixes in when statement";
reference "1.7.2";
}
revision "2019-10-12" {
description
"Fix when statement paths";
reference "1.7.1";
}
revision "2019-08-08" {
description
"Add ALS config to logical-channel/ethernet/config and remove
legacy interfaces augment for this config. Client FEC was
previosuly migrated to the components model and should not
be here anymore.";
reference "1.7.0";
}
revision "2019-07-26" {
description
"Add support for LLDP natively on logical-channels.";
reference "1.6.0";
}
revision "2018-11-21" {
description
"Add OpenConfig module metadata extensions.";
reference "1.5.1";
}
revision "2018-10-23" {
description
"Adds support of logical-channel tributary slot allocation to
logical-channel-assignments with different channel speeds.
Enables logical channel mapping procedure specification.";
reference "1.5.0";
}
revision "2018-08-28" {
description
"Adds terminal device related Ethernet counters";
reference "1.4.0";
}
revision "2018-07-30" {
description
"Adds lldp snooping config leaf and augmented it to oc-lldp";
reference "1.3.0";
}
revision "2018-07-26" {
description
"Adds OTN protocol counter stats of errored-blocks and
fec-uncorrectable-blocks, adds ethernet-config-ext grouping
and uses it to augment oc-eth";
reference "1.2.0";
}
revision "2018-07-17" {
description
"Adds testing enum to link-state";
reference "1.1.0";
}
revision "2017-07-08" {
description
"Adds test-signal";
reference "1.0.0";
}
revision "2016-12-22" {
description
"Fixes and additions to terminal optics model";
reference "0.4.0";
}
// OpenConfig specific extensions for module metadata.
oc-ext:regexp-posix;
oc-ext:catalog-organization "openconfig";
oc-ext:origin "openconfig";
grouping terminal-input-optical-power {
description
"Reusable leaves related to input optical power";
leaf input-power {
type decimal64 {
fraction-digits 2;
}
units dBm;
description
"The input optical power of this port in units of 0.01dBm.
If the port is an aggregate of multiple physical channels,
this attribute is the total power or sum of all channels.";
}
}
grouping terminal-ethernet-protocol-config {
description
"Configuration data for logical channels with Ethernet
framing";
leaf client-als {
type enumeration {
enum NONE {
description
"The client port will do nothing when a failure is
detected on the line port or the remote client port";
}
enum LASER_SHUTDOWN {
description
"The client port will shut down the laser to notify the
subtending Ethernet equipment of the failure detected on
the line port or the remote client port.";
}
enum ETHERNET {
description
"The client port will propagate the local fault or remote
fault signal to the subtending Ethernet equipment.";
}
}
default ETHERNET;
description
"Sets the client port behavior that defines if the actions
of automatic laser shutdown (als), ethernet fault
propagation, or nothing will be done upon the detection
of a failure on the line port or the upstream remote
client port.";
}
leaf als-delay {
type uint32;
units milliseconds;
default 0;
description
"The timer to delay the client-als actions on the client
port when a local or remote fault is detected on the line
port. The delay will only be valid when the client-als is
set to LASER_SHUTDOWN";
}
}
grouping terminal-ethernet-protocol-state {
description
"Ethernet-specific counters when logical channel
is using Ethernet protocol framing, e.g., 10GE, 100GE";
uses oc-eth:ethernet-interface-state-counters;
uses terminal-ethernet-protocol-state-counters;
uses terminal-phy-protocol-stats {
description
"When 400ZR/ZR+ transceivers are plugged in switches or routers,
this grouping will be attached to logical channel with Ethernet
protocol framing, in order to involve host-side fec-related
error performances.";
}
}
grouping terminal-ethernet-protocol-state-counters {
description
"Ethernet-specific counters for terminal devices when
logical channel is using Ethernet protocol framing,
e.g., 10GE, 100GE";
// ingress counters
leaf in-pcs-bip-errors {
type oc-yang:counter64;
description
"The number of received bit interleaved parity (BIP) errors
at the physical coding sublayer (PCS). If the interface
consists of multiple lanes, this will be the sum of all
errors on the lane";
}
leaf in-pcs-errored-seconds {
type oc-yang:counter64;
description
"The number of seconds that physical coding sublayer (PCS)
errors have crossed a sytem defined threshold indicating the
link is erroring";
}
leaf in-pcs-severely-errored-seconds {
type oc-yang:counter64;
description
"The number of seconds that physical coding sublayer (PCS)
errors have crossed a system defined threshold indicating the
link is severely erroring";
}
leaf in-pcs-unavailable-seconds {
type oc-yang:counter64;
description
"The number of seconds that physical coding sublayer (PCS)
errors have crossed a system defined threshold indicating the
link is unavailable";
}
// egress counters
leaf out-pcs-bip-errors {
type oc-yang:counter64;
description
"The number of transmitted bit interleaved parity (BIP) errors
at the physical coding sublayer (PCS). If the interface
consists of multiple lanes, this will be the sum of all
errors on the lane";
}
leaf out-crc-errors {
type oc-yang:counter64;
description
"Number of FCS/CRC error check failures sent on the interface";
}
leaf out-block-errors {
type oc-yang:counter64;
description
"The number of transmitted errored blocks. Error detection
codes are capable of detecting whether one or more errors have
occurred in a given sequence of bits - the block. It is
normally not possible to determine the exact number of errored
bits within the block";
}
}
grouping terminal-ethernet-protocol-top {
description
"Top-level grouping for data related to Ethernet protocol
framing on logical channels";
container ethernet {
description
"Top level container for data related to Ethernet framing
for the logical channel";
container config {
description
"Configuration data for Ethernet protocol framing on
logical channels";
uses terminal-ethernet-protocol-config;
}
container state {
config false;
description
"Operational state data for Ethernet protocol framing
on logical channels";
uses terminal-ethernet-protocol-config;
uses terminal-ethernet-protocol-state;
}
uses lldp-logical-channel-top;
}
}
grouping lldp-logical-channel-top {
description
"Top-level grouping for LLDP data for a logical channel";
container lldp {
description
"LLDP data for logical channels";
container config {
description
"LLDP configuration data for logical channels";
uses lldp-logical-channel-config;
}
container state {
config false;
description
"LLDP operational state data for logical channels";
uses lldp-logical-channel-config;
uses oc-lldp:lldp-interface-state;
}
uses lldp-logical-channel-neighbor-top;
}
}
grouping lldp-logical-channel-config {
description
"Configuration data for LLDP for logical-channels";
leaf enabled {
type boolean;
default "false";
description
"Enable or disable the LLDP protocol on the logical channel.";
}
leaf snooping {
type boolean;
default "false";
description
"If true, LLDP PDUs are only received and processed on
the logical-channel, but are not originated by the local
agent. The PDUs are not dropped by the logical channel after
processing, but relayed to the downstream link layer
neighbors. The snooping mode is valid only when LLDP is
enabled on the logical channel. The snooping mode is useful
when a logical channel does not want its link layer neighbors
to discover itself since, for example, it is a lower-layer
logical channel.";
}
}
grouping lldp-logical-channel-neighbor-top {
description
"Top-level grouping for the LLDP neighbor list";
container neighbors {
config false;
description
"Enclosing container for list of LLDP neighbors on
a logical channel";
list neighbor {
key "id";
description
"List of LLDP neighbors. If the implementation only
supports one neighbor, this would always be a list with
one item. If the device and neighbor supported multiple
neighbors, which can be achieved via LLDP forwarding, then
this would be supported";
reference
"IEEE Std 802.1AB-2016, section 7.1, Destination address";
leaf id {
type leafref {
path "../state/id";
}
description
"System generated identifier for the neighbor on
the logical channel.";
}
container config {
description
"Configuration data ";
uses lldp-logical-channel-neighbor-config;
}
container state {
config false;
description
"Operational state data ";
uses oc-lldp:lldp-system-info-config;
uses oc-lldp:lldp-system-info-state;
uses oc-lldp:lldp-neighbor-config;
uses oc-lldp:lldp-neighbor-state;
}
uses oc-lldp:lldp-custom-tlv-top;
}
}
}
grouping lldp-logical-channel-neighbor-config {
description
"Configuration data for LLDP neighbors";
}
grouping terminal-otn-protocol-config {
description
"OTU configuration when logical channel
framing is using an OTU protocol, e.g., OTU1, OTU3, etc.";
leaf tti-msg-transmit {
type string;
description
"Trail trace identifier (TTI) message transmitted";
}
leaf tti-msg-expected {
type string;
description
"Trail trace identifier (TTI) message expected";
}
leaf tti-msg-auto {
type boolean;
description
"Trail trace identifier (TTI) transmit message automatically
created. If true, then setting a custom transmit message
would be invalid.";
}
leaf tributary-slot-granularity {
type identityref {
base oc-opt-types:TRIBUTARY_SLOT_GRANULARITY;
}
description
"Granularity value of OPUk or OPUCn tributary slots for OTN
signal allocation. The currently defined values follow the
existing ITU-T G.709 standard, which can be extended as
needed in future.";
}
}
grouping terminal-otn-protocol-counter-stats {
description
"Counter based statistics containers for logical channels
using OTN framing";
leaf errored-seconds {
type yang:counter64;
description
"The number of seconds that at least one errored blocks
occurs, at least one code violation occurs, loss of sync is
detected or loss of signal is detected";
}
leaf severely-errored-seconds {
type yang:counter64;
description
"The number of seconds that loss of frame is detected OR
the number of errored blocks, code violations, loss of sync
or loss of signal is detected exceeds a predefined
threshold";
}
leaf unavailable-seconds {
type yang:counter64;
description
"The number of seconds during which the link is unavailable";
}
leaf code-violations {
type yang:counter64;
description
"For ethernet or fiberchannel links, the number of 8b/10b
coding violations. For SONET/SDH, the number of BIP (bit
interleaved parity) errors";
}
leaf errored-blocks {
type yang:counter64;
description
"The number of errored blocks. Error detection codes are
capable to detect whether one or more errors have occurred
in a given sequence of bits - the block. It is normally not
possible to determine the exact number of errored bits within
the block.";
reference "ITU-T Rec. G.826";
}
leaf fec-uncorrectable-words {
type yang:counter64;
description
"The number of words that were uncorrectable by the FEC";
}
leaf fec-corrected-bytes {
type yang:counter64;
description
"The number of bytes that were corrected by the FEC";
}
leaf fec-corrected-bits {
type yang:counter64;
description
"The number of bits that were corrected by the FEC";
}
leaf background-block-errors {
type yang:counter64;
description
"The number of background block errors";
}
}
grouping terminal-phy-protocol-stats {
description
"Counters and multi-value statistics for FEC-related error
performance";
container pre-fec-ber {
description
"Bit error rate before forward error correction -- computed
value with 18 decimal precision. Note that decimal64
supports values as small as i x 10^-18 where i is an
integer. Values smaller than this should be reported as 0
to inidicate error free or near error free performance.
Values include the instantaneous, average, minimum, and
maximum statistics. If avg/min/max statistics are not
supported, the target is expected to just supply the
instant value";
uses oc-opt-types:avg-min-max-instant-stats-precision18-ber;
}
container post-fec-ber {
description
"Bit error rate after forward error correction -- computed
value with 18 decimal precision. Note that decimal64
supports values as small as i x 10^-18 where i is an
integer. Values smaller than this should be reported as 0
to inidicate error free or near error free performance.
Values include the instantaneous, average, minimum, and
maximum statistics. If avg/min/max statistics are not
supported, the target is expected to just supply the
instant value";
uses oc-opt-types:avg-min-max-instant-stats-precision18-ber;
}
container q-value {
description
"Quality value (factor) in dB of a channel with two
decimal precision. Values include the instantaneous,
average, minimum, and maximum statistics. If avg/min/max
statistics are not supported, the target is expected
to just supply the instant value";
uses oc-types:avg-min-max-instant-stats-precision2-dB;
}
container esnr {
description
"Electrical signal to noise ratio. Baud rate
normalized signal to noise ratio based on
error vector magnitude in dB with two decimal
precision. Values include the instantaneous, average,
minimum, and maximum statistics. If avg/min/max
statistics are not supported, the target is expected
to just supply the instant value";
uses oc-types:avg-min-max-instant-stats-precision2-dB;
}
leaf fec-uncorrectable-blocks {
type yang:counter64;
description
"The number of blocks or frames that were uncorrectable by
the FEC";
}
}
grouping terminal-otn-protocol-state {
description
"OTU operational state when logical channel
framing is using an OTU protocol, e.g., OTU1, OTU3, etc.";
leaf tti-msg-recv {
type string;
description
"Trail trace identifier (TTI) message received";
}
leaf rdi-msg {
type string;
description
"Remote defect indication (RDI) message received";
}
uses terminal-otn-protocol-counter-stats;
uses terminal-phy-protocol-stats {
description
"This grouping may be used when the logical-channel-type
is 'PROT_OTN.";
}
}
grouping terminal-otn-protocol-top {
description
"Top-level grouping for data related to OTN protocol framing";
container otn {
description
"Top level container for OTU configuration when logical
channel framing is using an OTU protocol, e.g., OTU1, OTU3,
etc.";
container config {
description
"Configuration data for OTN protocol framing";
uses terminal-otn-protocol-config;
}
container state {
config false;
description
"Operational state data for OTN protocol PMs, statistics,
etc.";
uses terminal-otn-protocol-config;
uses terminal-otn-protocol-state;
}
}
}
grouping terminal-client-port-assignment-config {
description
"Configuration data for assigning physical client ports to
logical channels";
leaf index {
type uint32;
description
"Index of the client port assignment";
}
leaf description {
type string;
description
"Descriptive name for the client port-to-logical channel
mapping";
}
leaf logical-channel {
type leafref {
path "/oc-opt-term:terminal-device/oc-opt-term:logical-channels" +
"/oc-opt-term:channel/oc-opt-term:index";
}
description
"Reference to the logical channel for this
assignment";
}
leaf allocation {
type decimal64 {
fraction-digits 3;
}
units Gbps;
description
"Allocation of the client physical port to the assigned
logical channel expressed in Gbps. In most cases,
the full client physical port rate is assigned to a single
logical channel.";
}
}
grouping terminal-client-port-assignment-state {
description
"Operational state data for assigning physical client ports
to logical channels";
}
grouping terminal-client-port-assignment-top {
description
"Top-level grouping for the assigment of client physical ports
to logical channels";
//TODO: this grouping could be removed, instead reusing a common
//grouping for logical client assignment pointers
container logical-channel-assignments {
description
"Enclosing container for client port to logical client
mappings";
list assignment {
key "index";
description
"List of assignments to logical clients";
leaf index {
type leafref {
path "../config/index";
}
description
"Reference to the index of this logical client
assignment";
}
container config {
description
"Configuration data for the logical client assignment";
uses terminal-client-port-assignment-config;
}
container state {
config false;
description
"Operational state data for the logical client
assignment";
uses terminal-client-port-assignment-config;
uses terminal-client-port-assignment-state;
}
}
}
}
grouping terminal-logical-chan-assignment-config {
description
"Configuration data for assigning client logical channels
to line-side tributaries";
leaf index {
type uint32;
description
"Index of the current logical client channel to tributary
mapping";
}
leaf description {
type string;
description
"Name assigned to the logical client channel";
}
leaf assignment-type {
type enumeration {
enum LOGICAL_CHANNEL {
description
"Subsequent channel is a logical channel";
}
enum OPTICAL_CHANNEL {
description
"Subsequent channel is a optical channel / carrier";
}
}
description
"Each logical channel element may be assigned to subsequent
stages of logical elements to implement further grooming, or
can be assigned to a line-side optical channel for
transmission. Each assignment also has an associated
bandwidth allocation.";
}
leaf logical-channel {
type leafref {
path "/oc-opt-term:terminal-device/" +
"oc-opt-term:logical-channels/oc-opt-term:channel/" +
"oc-opt-term:index";
}
must "../assignment-type = 'LOGICAL_CHANNEL'" {
description
"The assignment-type must be set to LOGICAL_CHANNEL for
this leaf to be valid";
}
description
"Reference to another stage of logical channel elements.";
}
leaf optical-channel {
type leafref {
path "/oc-platform:components/oc-platform:component/" +
"oc-platform:name";
}
must "../assignment-type = 'OPTICAL_CHANNEL'" {
description
"The assignment-type must be set to OPTICAL_CHANNEL for
this leaf to be valid";
}
description
"Reference to the line-side optical channel that should
carry the current logical channel element. Use this
reference to exit the logical element stage.";
}
leaf allocation {
type decimal64 {
fraction-digits 3;
}
units Gbps;
description
"Allocation of the logical client channel to the tributary
or sub-channel, expressed in Gbps. Please note that if the
assignment is to an OTN logical channel, the allocation must
be an integer multiplication to tributary-slot-granularity
of the OTN logical channel.";
}
leaf tributary-slot-index {
type int32;
description
"Indicates the first tributary slot index allocated to the
client signal or logical channel in the assignment. Valid
only when the assignment is to an OTN logical channel.";
}
leaf mapping {
type identityref {
base oc-opt-types:FRAME_MAPPING_PROTOCOL;
}
description
"Logical channel mapping procedure. Valid only when the
assignment is to an OTN logical channel.";
}
}
grouping terminal-logical-chan-assignment-state {
description
"Operational state data for the assignment of logical client
channel to line-side tributary";
}
grouping terminal-logical-chan-assignment-top {
description
"Top-level grouping for the list of logical client channel-to-
tributary assignments";
container logical-channel-assignments {
//TODO: we need a commonly understood name for this logical
//channel structure
description
"Enclosing container for tributary assignments";
list assignment {
key "index";
description
"Logical channel elements may be assigned directly to
optical channels for line-side transmission, or can be
further groomed into additional stages of logical channel
elements. The grooming can multiplex (i.e., split the
current element into multiple elements in the subsequent
stage) or de-multiplex (i.e., combine the current element
with other elements into the same element in the subsequent
stage) logical elements in each stage.
Note that to support the ability to groom the logical
elements, the list of logical channel elements should be
populated with an entry for the logical elements at
each stage, starting with the initial assignment from the
respective client physical port.
Each logical element assignment consists of a pointer to
an element in the next stage, or to an optical channel,
along with a bandwidth allocation for the corresponding
assignment (e.g., to split or combine signal).";
leaf index {
type leafref {
path "../config/index";
}
description
"Reference to the index for the current tributary
assignment";
}
container config {
description
"Configuration data for tributary assignments";
uses terminal-logical-chan-assignment-config;
}
container state {
config false;
description
"Operational state data for tributary assignments";
uses terminal-logical-chan-assignment-config;
uses terminal-logical-chan-assignment-state;
}
}
}
}
grouping terminal-logical-channel-ingress-config {
description
"Configuration data for ingress signal to logical channel";
leaf transceiver {
type leafref {
path "/oc-platform:components/oc-platform:component/" +
"oc-platform:name";
}
description
"Reference to the transceiver carrying the input signal
for the logical channel. If specific physical channels
are mapped to the logical channel (as opposed to all
physical channels carried by the transceiver), they can be
specified in the list of physical channel references.";
}
leaf-list physical-channel {
type leafref {
path "/oc-platform:components/oc-platform:component/" +
"oc-transceiver:transceiver/" +
"oc-transceiver:physical-channels/" +
"oc-transceiver:channel/oc-transceiver:index";
}
description
"This list should be populated with references
to the client physical channels that feed this logical
channel from the transceiver specified in the 'transceiver'
leaf, which must be specified. If this leaf-list is empty,
all physical channels in the transceiver are assumed to be
mapped to the logical channel.";
}
leaf interface {
type oc-if:base-interface-ref;
description
"Reference to the interface carrying the input signal
for the logical channel. The ingress will specify an interface
in the case of a transceiver being utilized directly in a
router and bypassing a dedicated terminal device. When
specified, the other leaves in the ingress config must be
empty.";
}
}
grouping terminal-logical-channel-ingress-state {
description
"Operational state data for ingress signal to logical channel";
}
grouping terminal-logical-channel-ingress-top {
description
"Top-level grouping for ingress signal to logical channel";
container ingress {
description
"Top-level container for specifying references to the
source of signal for the logical channel, either a
transceiver, individual physical channels, or an interface";
container config {
description
"Configuration data for the signal source for the
logical channel";
uses terminal-logical-channel-ingress-config;
}
container state {
config false;
description
"Operational state data for the signal source for the
logical channel";
uses terminal-logical-channel-ingress-config;
uses terminal-logical-channel-ingress-state;
}
}
}
grouping terminal-logical-channel-config {
description
"Configuration data for logical channels";
leaf index {
type uint32;
description
"Index of the current logical channel";
}
leaf description {
type string;
description
"Description of the logical channel";
}
leaf admin-state {
type oc-opt-types:admin-state-type;
description
"Sets the admin state of the logical channel";
}
leaf rate-class {
type identityref {
base oc-opt-types:TRIBUTARY_RATE_CLASS_TYPE;
}
description
"Rounded bit rate of the tributary signal. Exact bit rate
will be refined by protocol selection.";
}
leaf trib-protocol {
type identityref {
base oc-opt-types:TRIBUTARY_PROTOCOL_TYPE;
}
description
"Protocol framing of the tributary signal. If this
LogicalChannel is directly connected to a Client-Port or
Optical-Channel, this is the protocol of the associated port.
If the LogicalChannel is connected to other LogicalChannels,
the TributaryProtocol of the LogicalChannels will define a
specific mapping/demapping or multiplexing/demultiplexing
function.
Not all protocols are valid, depending on the value
of trib-rate-class. The expectation is that the NMS
will validate that a correct combination of rate class
and protocol are specfied. Basic combinations are:
rate class: 1G
protocols: 1GE
rate class: 2.5G
protocols: OC48, STM16
rate class: 10G
protocols: 10GE LAN, 10GE WAN, OC192, STM64, OTU2, OTU2e,
OTU1e, ODU2, ODU2e, ODU1e
rate class: 40G
protocols: 40GE, OC768, STM256, OTU3, ODU3
rate class: 100G
protocols: 100GE, 100G MLG, OTU4, OTUCn, ODU4";
}
leaf logical-channel-type {
type identityref {
base oc-opt-types:LOGICAL_ELEMENT_PROTOCOL_TYPE;
}
description
"The type / stage of the logical element determines the
configuration and operational state parameters (PMs)
available for the logical element";
}
leaf loopback-mode {
type oc-opt-types:loopback-mode-type;
description
"Sets the loopback type on the logical channel. Setting the
mode to something besides NONE activates the loopback in
the specified mode.";
}
leaf test-signal {
type boolean;
description
"When enabled the logical channel's DSP will generate a pseudo
randmon bit stream (PRBS) which can be used during testing.";
}
leaf client-mapping-mode {
type identityref {
base oc-opt-types:CLIENT_MAPPING_MODE;
}
description
"The client side mapping mode internal to the device that
specifies the number of client electrical interfaces and
the data rate of each client electrical interface. For
example, a ZR+ transceiver with an optical line rate of 400G
could be configured to break out into four 100G client
signals which might connect to an interface or a
physical-channel. This would be configured on the aggregate
logical channel as MODE_4X100G. This is only valid on the
aggregate logical channel that is connected directly to the
optical-channel.";
}
}
grouping terminal-logical-channel-state {
description
"Operational state data for logical client channels";
leaf link-state {
type enumeration {
enum UP {
description
"Logical channel is operationally up";
}
enum DOWN {
description
"Logical channel is operationally down";
}
enum TESTING {
description
"Logical channel is under test as a result of
enabling test-signal";
}
}
description
"Link-state of the Ethernet protocol on the logical channel,
SONET / SDH framed signal, etc.";
}
}
grouping terminal-logical-channel-top {
description
"Top-level grouping for logical channels";
container logical-channels {
description
"Enclosing container the list of logical channels";
list channel {
key "index";
description
"List of logical channels";
//TODO: naming for this list of logical elements should be
//revisited.
leaf index {
type leafref {
path "../config/index";
}
description
"Reference to the index of the logical channel";
}
container config {
description
"Configuration data for logical channels";
uses terminal-logical-channel-config;
}
container state {
config false;
description
"Operational state data for logical channels";
uses terminal-logical-channel-config;
uses terminal-logical-channel-state;
}
uses terminal-otn-protocol-top {
when "./config/logical-channel-type = 'PROT_OTN'" {
description
"Include the OTN protocol data only when the
channel is using OTN framing.";
}
}
uses terminal-ethernet-protocol-top {
when "./config/logical-channel-type = 'PROT_ETHERNET'" {
description
"Include the Ethernet protocol statistics only when the
protocol used by the link is Ethernet.";
}
}
uses terminal-logical-channel-ingress-top;
uses terminal-logical-chan-assignment-top;
}
}
}
grouping terminal-optical-channel-config {
description
"Configuration data for describing optical channels";
leaf frequency {
type oc-opt-types:frequency-type;
description
"Frequency of the optical channel, expressed in MHz";
}
leaf target-output-power {
type decimal64 {
fraction-digits 2;
}
units dBm;
description
"Target output optical power level of the optical channel,
expressed in increments of 0.01 dBm (decibel-milliwats)";
}
leaf operational-mode {
type uint16;
description
"Vendor-specific mode identifier -- sets the operational
mode for the channel. The specified operational mode must
exist in the list of supported operational modes supplied
by the device";
//
// Ideally, this leaf should be a leafref to the supported
// operational modes, but YANG 1.0 does not allow a r/w
// leaf to be a leafref to a r/o leaf.
}
leaf line-port {
type leafref {
path "/oc-platform:components/oc-platform:component/" +
"oc-platform:name";
}
description
"Reference to the line-side physical port that carries
this optical channel. The target port should be
a component in the physical inventory data model.";
}
}
grouping terminal-optical-channel-state {
description
"Operational state data for optical channels";
leaf group-id {
type uint32;
description
"If the device places constraints on which optical
channels must be managed together (e.g., transmitted on the
same line port), it can indicate that by setting the group-id
to the same value across related optical channels.";
}
uses oc-transceiver:optical-power-state;
container chromatic-dispersion {
description
"Chromatic Dispersion of an optical channel in
picoseconds / nanometer (ps/nm) as reported by receiver
with two decimal precision. Values include the instantaneous,
average, minimum, and maximum statistics. If avg/min/max
statistics are not supported, the target is expected to just
supply the instant value";
uses oc-opt-types:avg-min-max-instant-stats-precision2-ps-nm;
}
container polarization-mode-dispersion {
description
"Polarization Mode Dispersion of an optical channel
in picosends (ps) as reported by receiver with two decimal
precision. Values include the instantaneous, average,
minimum, and maximum statistics. If avg/min/max statistics
are not supported, the target is expected to just supply the
instant value";
uses oc-opt-types:avg-min-max-instant-stats-precision2-ps;
}
container second-order-polarization-mode-dispersion {
description
"Second Order Polarization Mode Dispersion of an optical
channel in picoseconds squared (ps^2) as reported by
receiver with two decimal precision. Values include the
instantaneous, average, minimum, and maximum statistics.
If avg/min/max statistics are not supported, the target
is expected to just supply the instant value";
uses oc-opt-types:avg-min-max-instant-stats-precision2-ps2;
}
container polarization-dependent-loss {
description
"Polarization Dependent Loss of an optical channel
in dB as reported by receiver with two decimal precision.
Values include the instantaneous, average, minimum, and
maximum statistics. If avg/min/max statistics are not
supported, the target is expected to just supply the
instant value";
uses oc-types:avg-min-max-instant-stats-precision2-dB;
}
container modulator-bias-xi {
description
"The bias on in-phase path and Polarization X of
the coherent modulator. This is represented as a percentage
with 2 decimal precision. This term is defined by OIF
Implementation Agreement for Coherent CMIS. Values include
the instantaneous, average, minimum, and maximum statistics.
If avg/min/max statistics are not supported, the target is
expected to just supply the instant value.";
uses oc-opt-types:avg-min-max-instant-stats-precision2-pct;
}
container modulator-bias-xq {
description
"The bias on quadrature path and Polarization X of
the coherent modulator. This is represented as a percentage
with 2 decimal precision. This term is defined by OIF
Implementation Agreement for Coherent CMIS. Values include
the instantaneous, average, minimum, and maximum statistics.
If avg/min/max statistics are not supported, the target is
expected to just supply the instant value.";
uses oc-opt-types:avg-min-max-instant-stats-precision2-pct;
}
container modulator-bias-yi {
description
"The bias on in-phase path and Polarization Y of
the coherent modulator. This is represented as a percentage
with 2 decimal precision. This term is defined by OIF
Implementation Agreement for Coherent CMIS. Values include
the instantaneous, average, minimum, and maximum statistics.
If avg/min/max statistics are not supported, the target is
expected to just supply the instant value.";
uses oc-opt-types:avg-min-max-instant-stats-precision2-pct;
}
container modulator-bias-yq {
description
"The bias on quadrature path and Polarization Y of
the coherent modulator. This is represented as a percentage
with 2 decimal precision. This term is defined by OIF
Implementation Agreement for Coherent CMIS. Values include
the instantaneous, average, minimum, and maximum statistics.
If avg/min/max statistics are not supported, the target is
expected to just supply the instant value.";
uses oc-opt-types:avg-min-max-instant-stats-precision2-pct;
}
container modulator-bias-x-phase {
description
"The X-Phase bias of the coherent modulator. This is
represented as a percentage with 2 decimal precision. This
term is defined by OIF Implementation Agreement for
Coherent CMIS. Values include the instantaneous, average,
minimum, and maximum statistics. If avg/min/max statistics
are not supported, the target is expected to just supply
the instant value.";
uses oc-opt-types:avg-min-max-instant-stats-precision2-pct;
}
container modulator-bias-y-phase {
description
"The Y-Phase bias of the coherent modulator. This is
represented as a percentage with 2 decimal precision. This
term is defined by OIF Implementation Agreement for
Coherent CMIS. Values include the instantaneous, average,
minimum, and maximum statistics. If avg/min/max statistics
are not supported, the target is expected to just supply
the instant value.";
uses oc-opt-types:avg-min-max-instant-stats-precision2-pct;
}
container osnr {
description
"Optical signal to noise ratio at 12.5GHz noise bandwidth
in dB with two decimal precision. Values include the
instantaneous, average, minimum, and maximum statistics.
If avg/min/max statistics are not supported, the target
is expected to just supply the instant value.";
uses oc-types:avg-min-max-instant-stats-precision2-dB;
}
container carrier-frequency-offset {
description
"Carrier frequency offset in MHz with 1 decimal precision.
Values include the instantaneous, average, minimum, and
maximum statistics. If avg/min/max statistics are not supported,
the target is expected to just supply the instant value.";
uses oc-opt-types:avg-min-max-instant-stats-precision1-mhz;
}
container sop-roc {
description
"State-of-polarization rate-of-change (SOP-ROC) in krad/s with 1
decimal precision. This term is defined by OIF Implementation
Agreement for Coherent CMIS. Values include the instantaneous,
average, minimum, and maximum statistics. If avg/min/max
statistics are not supported, the target is expected to just
supply the instant value.";
uses oc-opt-types:avg-min-max-instant-stats-precision1-krads;
}
container modulation-error-ratio {
description
"Modulation error ratio in dB with two decimal precision. Values
include the instantaneous, average, minimum, and maximum statistics.
If avg/min/max statistics are not supported, the target is
expected to just supply the instant value.";
uses oc-types:avg-min-max-instant-stats-precision2-dB;
}
uses terminal-phy-protocol-stats {
description
"When there is no OTN framing e.g. 400ZR, this grouping will be used.";
}
}
grouping terminal-optical-channel-top {
description
"Top-level grouping for optical channel data";
container optical-channel {
description
"Enclosing container for the list of optical channels";
container config {
description
"Configuration data for optical channels";
uses terminal-optical-channel-config;
}
container state {
config false;
description
"Operational state data for optical channels";
uses terminal-optical-channel-config;
uses terminal-optical-channel-state;
}
}
}
grouping terminal-operational-mode-config {
description
"Configuration data for vendor-supported operational modes";
}
grouping terminal-operational-mode-state {
description
"Operational state data for vendor-supported operational
modes";
leaf mode-id {
type uint16;
description
"Two-octet encoding of the vendor-defined operational
mode";
}
leaf description {
type string;
description
"Vendor-supplied textual description of the characteristics
of this operational mode to enable operators to select the
appropriate mode for the application.";
}
//TODO: examples of the kind of info that would be useful to
//report in the operational mode:
//Symbol rate (32G, 40G, 43G, 64G, etc.)
//Modulation (QPSK, 8-QAM, 16-QAM, etc.)
//Differential encoding (on, off/pilot symbol, etc)
//State of polarization tracking mode (default, med.
//high-speed, etc.)
//Pulse shaping (RRC, RC, roll-off factor)
//FEC mode (SD, HD, % OH)
leaf vendor-id {
type string;
description
"Identifier to represent the vendor / supplier of the
platform and the associated operational mode information";
}
}
grouping terminal-operational-mode-top {
description
"Top-level grouping for vendor-supported operational modes";
container operational-modes {
description
"Enclosing container for list of operational modes";
list mode {
key "mode-id";
config false;
description
"List of operational modes supported by the platform.
The operational mode provides a platform-defined summary
of information such as symbol rate, modulation, pulse
shaping, etc.";
leaf mode-id {
type leafref {
path "../state/mode-id";
}
description
"Reference to mode-id";
}
container config {
description
"Configuration data for operational mode";
uses terminal-operational-mode-config;
}
container state {
config false;
description
"Operational state data for the platform-defined
operational mode";
uses terminal-operational-mode-config;
uses terminal-operational-mode-state;
}
}
}
}
grouping terminal-device-config {
description
"Configuration data for transport terminal devices at a
device-wide level";
}
grouping terminal-device-state {
description
"Operational state data for transport terminal devices at a
device-wide level";
}
grouping terminal-device-top {
description
"Top-level grouping for data for terminal devices";
container terminal-device {
description
"Top-level container for the terminal device";
container config {
description
"Configuration data for global terminal-device";
uses terminal-device-config;
}
container state {
config false;
description
"Operational state data for global terminal device";
uses terminal-device-config;
uses terminal-device-state;
}
uses terminal-logical-channel-top;
uses terminal-operational-mode-top;
}
}
// data definition statements
uses terminal-device-top;
// augment statements
augment "/oc-platform:components/oc-platform:component" {
description
"Adding optical channel data to physical inventory. This
augmentation is only valid when the type of the component
is OPTICAL_CHANNEL.";
uses terminal-optical-channel-top;
}
}