We, the Thinklogical team, are committed to understanding and
exceeding our customers’ requirements, the first time and every time.
About Thinklogical
Thinklogical is the leading manufacturer and provider of fiber optic KVM, video, audio, and
peripheral extension and switching solutions used in video-rich, big-data computing
environments.
Thinklogical offers the only fiber-optic KVM matrix switches in the world that are accredited to
the Common Criteria EAL4, TEMPEST Level B, and NATO NIAPC Evaluation Scheme: GREEN
information assurance standards. And Thinklogical Velocity products are the first system with
both KVM and video matrix switching capabilities to be placed on the Unified Capabilities
Approved Product List (UC APL) under the Video Distribution System (VDS) category.
Governments, entertainment, scientific and industrial customers worldwide rely on Thinklogical’s
products and solutions for security, high performance, continuous operation and ease of
integration. Thinklogical products are designed and manufactured in the USA and are certified to
the ISO 9001-2008 standard.
Thinklogical is headquartered in Milford, Connecticut and is privately held by Riverside Partners,
LLC, Boston, MA (http://www.riversidepartners.com). For more information about Thinklogical
products and services, please visit www.thinklogical.com.
Follow Thinklogical on LinkedIn at http://www.linkedin.com/company/thinklogical and on
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SNMP (Simple Network Management Protocol) is an Internet-standard protocol for managing devices
connected to IP networks. SNMP is widely used in network management systems to monitor
networked devices for conditions that warrant administrative attention.
An SNMP-managed network consists of three key components:
Managed device (allows unidirectional or bidirectional access to node-specific information)
Agent — the software which runs on managed devices
Network Management Station (NMS) — the software which runs on the manager
This manual documents trap (notification) messages that keep the user informed of events that
occur, in real time, on each agent on the managed device (Matrix Switch). It contains sections for
SFP Generated Traps, Switch Generated Traps and Standard Traps, as well as Regulatory &
Safety Requirements and Thinklogical Support.
Note and Warning Symbols
In Sections 4 and 5 of this manual you will notice certain symbols that bring your attention to important
information. These are Notes and Warnings. Examples are shown below.
Note: Important Notes appear in blue text preceded by a yellow exclamation point symbol, as
shown here.
A note is meant to call the reader’s attention to helpful or important information at a point in the text that is
relevant to the subject being discussed.
Warning! All Warnings appear in red text, followed by blue text, and preceded by a red stop
sign, as shown here.
A warning is meant to call the reader’s attention to critical information at a point in the text that is relevant to
the subject being discussed.
An SFP module has the ability to monitor and trigger an alarm on a high or low temperature reading. This
ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 7 of byte 112 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the internal temperature of the SFP exceeds the high temperature alarm level. The SFP
temperature is stored at bytes96 and 97 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,1
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,2
Low Temperature Alarm Begin and Clear
An SFP module has the ability to monitor and trigger an alarm on a high or low temperature reading. This
ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 6 of byte 112 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the internal temperature of the SFP exceeds the high temperature alarm level. The SFP
temperature is stored at bytes96 and 97 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,3
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,4
High Vcc Alarm Begin and Clear
An SFP module has the ability to monitor and trigger an alarm on a high or low Vcc voltage reading. This
ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 5 of byte 112 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the internal temperature of the SFP exceeds the high temperature alarm level. The SFP
temperature is stored at bytes98 and 99 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,5
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,6
An SFP module has the ability to monitor and trigger an alarm on a high or low Vcc voltage reading. This
ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 4 of byte 112 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the internal temperature of the SFP exceeds the high temperature alarm level. The SFP
temperature is stored at bytes98 and 99 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,7
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,8
High TX Bias Alarm Begin and Clear
An SFP module has the ability to monitor and trigger an alarm on a high or low TX bias current reading.
This ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 3 of byte 112 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the internal current to the SFP transmitter exceeds the high current alarm level. The SFP
TX BIAS current value is stored at bytes100 & 101 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,9
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,10
Low TX Bias Alarm Begin and Clear
An SFP module has the ability to monitor and trigger an alarm on a high or low TX bias current reading.
This ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 2 of byte 112 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the internal current to the SFP transmitter falls below the low current alarm level. The
SFP TX BIAS current value is stored at bytes100 & 101 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,11
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,12
An SFP module has the ability to monitor and trigger an alarm on a high or low TX laser power reading.
This ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 1 of byte 112 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the SFP transmitter laser power exceeds the high power alarm level. The SFP TX power
value is stored at bytes 102 & 103 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,13
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,14
Low TX Power Alarm Begin and Clear
An SFP module has the ability to monitor and trigger an alarm on a high or low TX laser power reading.
This ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 0 of byte 112 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the SFP transmitter laser power falls below the low power alarm level. The SFP TX
power value is stored at bytes102 & 103 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,15
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,16
High RX Power Alarm Begin and Clear
An SFP module has the ability to monitor and trigger an alarm on a high or low RX laser power reading.
This ability is internal to the SFP and is part of the digital diagnostic interface common to many SFPs. This
notification is sent when bit 7 of byte 113 in the real-time diagnostic registers changes from 0 to 1 (Begin) or
from a 1 to a 0 (Clear).
This bit is set when the SFP received laser power exceeds the high power alarm level. The SFP RX power
value is stored at bytes104 & 105 of the SFP diagnostic register table.
Begin OID: 1,3,6,1,4,1,17658,2,2,2,0,17
Clear OID: 1,3,6,1,4,1,17658,2,2,2,0,18