DEFENSE INFORMATION SYSTEMS AGENCY - JITCjitc.fhu.disa.mil/tssi/cert_pdfs/pesa_cheetah_vds_r_5_1... · 2013-01-08 · SUBJECT: Joint Interoperability Test Certification of the PESA

Joint Interoperability Test Command (JTE) 7 Jan 13

MEMORANDUM FOR DISTRIBUTION

SUBJECT: Joint Interoperability Test Certification of the PESA Cheetah with Release 5.1

References: (a) DoD Directive 4630.05, “Interoperability and Supportability of Information

Technology (IT) and National Security Systems (NSS),” 5 May 2004

(b) Department of Defense Instruction 8100.04, "DoD Unified Capabilities (UC),"

9 December 2010

(c) through (e), see Enclosure 1

1. References (a) and (b) establish Defense Information Security Agency (DISA) Joint

Interoperability Test Command (JITC), as the responsible organization for interoperability test

certification.

2. The PESA Cheetah with Release 5.1 is hereinafter referred to as the System Under Test

(SUT). The SUT meets all of its critical interoperability requirements and is therefore certified

for joint use as a closed Video Distribution System (VDS). As a closed VDS, the certified

interfaces are all internal to the VDS system and the SUT will not connect to the Defense

Information Systems Network (DISN). The SUT met the critical interoperability requirements

set forth in Reference (c), using test procedures derived from Reference (d). No other

configurations, features, or functions, except those cited within this memorandum, are certified

by JITC. This certification expires upon changes that could affect interoperability, but no later

than three years from the date of the DISA Certifying Authority recommendation as provided in

paragraph 3 (below).

3. This finding is based on interoperability testing conducted by JITC, review of the vendor's

Letters of Compliance (LoC), and DISA Certifying Authority (CA) Recommendation of the

Information Assurance (IA) configuration. Interoperability testing was conducted by JITC, Fort

Huachuca, Arizona, from 13 through 15 August 2012. Review of the vendor’s LoC was

completed on 15 August 2012. The DISA CA provided a positive Recommendation on

20 December 2012 based on the security testing completed by DISA-led IA test teams and

published in a separate report, Reference (e). The acquiring agency or site will be responsible

for the DoD Information Assurance Certification and Accreditation Process (DIACAP)

accreditation. Enclosure 2 documents the test results and describes the tested network and

system configurations including specified patch releases.

4. The interface, Capability Requirement (CR) and Functional Requirement (FR), and

component status of the SUT are listed in Tables 1 and 2. The threshold CR/FRs for a closed

VDS are established by Section 5.3.7 of Reference (c) and were used to evaluate the

IN REPLY REFER TO:

DEFENSE INFORMATION SYSTEMS AGENCY P. O. BOX 549

FORT MEADE, MARYLAND 20755-0549

JITC Memo, JTE, Joint Interoperability Test Certification of the PESA Cheetah with Release 5.1

2

interoperability of the SUT. Enclosure 3 provides a detailed list of the interface, capability, and

functional requirements.

Table 1. SUT Interface Interoperability Status

Interface Critical UCR

Reference Threshold CR/FR

1 Status

Serial (EIA 232) No2 5.3.7.1 2 Not Tested

10Base-X No2 5.3.7.1 2 Certified


1000Base-X No2 5.3.7.1 2 Not Tested

Coaxial BNC No 5.3.7.5 1, 3 Certified

Fiber Optic (SM, MM) Yes 5.3.7.5 1, 3 Certified

NOTES: 1. The annotation of ‘required’ refers to a high-level requirement category. The applicability of each sub-requirement is provided in

Enclosure 3. The system under test does not need to provide conditional requirements. However, if a capability is provided, it must function

according to the specified requirements in order to be certified for that capability.

2. The SUT shall have the ability to be controlled from an "external master control system" that shall include Serial (EIA-232), Ethernet

(TCP/IP), Contact Closure, or combinations thereof.

LEGEND:

BNC Bayonet Neill–Concelman

CR Capability Requirement

EIA Electronic Industries Alliance

EIA-232 Standard for defining the mechanical and electrical

characteristics for connecting Data Terminal Equipment

(DTE) and Data Circuit-terminating Equipment (DCE)

data communications devices

FR Functional Requirement

MM Single Mode

SM Multi-Mode

SUT System Under Test

TCP/IP Transmission Control Protocol/Internet Protocol

UCR Unified Capabilities Requirements

Table 2. SUT CRs and FRs Status

CR/FR

ID Capability/Function Applicability

1

UCR

Reference Status

1

Video Distribution System Requirements

Configuration Required 5.3.7.1 Met

IP Network Required 5.3.7.2 Met

Conversion Devices Required 5.3.7.3 Met

Peripheral Interfaces Required 5.3.7.4 Met

Video Tape Recording (VTR) Standards Required 5.3.7.4.1 Met

Network Interfaces Required 5.3.7.5 Met

Capacity Required 5.3.7.6 Met

Availability Required 5.3.7.8 Met

2 Device Management Requirements

System Diagnostics Required 5.3.7.9 Met

3 Information Assurance Requirements

Security Required 5.3.7.7 Met2


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Table 2. SUT CRs and FRs Status (continued)

NOTES:

1. The annotation of ‘required’ refers to a high-level requirement category. The applicability of each sub-requirement is provided in

Enclosure 3.

2. Information assurance testing is accomplished via DISA-led Information Assurance test teams and published in a separate report,

Reference (e).

LEGEND:

CR Capability Requirements

FR Functional Requirements

ID Identification

5. No detailed test report was developed in accordance with the Program Manager’s request.

JITC distributes interoperability information via the JITC Electronic Report Distribution (ERD)

system, which uses Unclassified-But-Sensitive Internet Protocol Router Network (NIPRNet) e-

mail. More comprehensive interoperability status information is available via the JITC System

Tracking Program (STP). The STP is accessible by .mil/gov users on the NIPRNet at

https://stp.fhu.disa.mil. Test reports, lessons learned, and related testing documents and

references are on the JITC Joint Interoperability Tool (JIT) at http://jit.fhu.disa.mil (NIPRNet).

Information related to DSN testing is on the Telecom Switched Services Interoperability (TSSI)

website at http://jitc.fhu.disa.mil/tssi. Due to the sensitivity of the information, the Information

Assurance Accreditation Package (IAAP) that contains the approved configuration and

deployment guide must be requested directly through government civilian or uniformed military

personnel from the Unified Capabilities Certification Office (UCCO), e-mail:

disa.meade.ns.list.unified-capabilities-certification-office@mail.mil.

6. The JITC point of contact is Dale Fulton, DSN 879-0507, commercial (520) 538-0507, FAX

DSN 879-4347, or e-mail to [email protected]. JITC’s mailing address is P.O. Box

12798, Fort Huachuca, AZ 85670-2798. The tracking number for the SUT is 1206801.

FOR THE COMMANDER:

3 Enclosures a/s

BRADLEY A. CLARK

Acting Chief

Battlespace Communications Portfolio


4

Distribution (electronic mail):

DoD CIO

Joint Staff J-6, JCS

USD(AT&L)

ISG Secretariat, DISA, JTA

U.S. Strategic Command, J665

US Navy, OPNAV N2/N6FP12

US Army, DA-OSA, CIO/G-6 ASA(ALT), SAIS-IOQ

US Air Force, A3CNN/A6CNN

US Marine Corps, MARCORSYSCOM, SIAT, A&CE Division

US Coast Guard, CG-64

DISA/TEMC

DIA, Office of the Acquisition Executive

NSG Interoperability Assessment Team

DOT&E, Netcentric Systems and Naval Warfare

Medical Health Systems, JMIS IV&V

HQUSAISEC, AMSEL-IE-IS

UCCO

Enclosure 1

ADDITIONAL REFERENCES

(c) Office of the Assistant Secretary of Defense, “Department of Defense Unified Capabilities

Requirements 2008, Change 3,” September 2011

(d) Joint Interoperability Test Command, “Unified Capabilities Video Distribution System Test

Plan,” Draft

(e) Joint Interoperability Test Command, “Information Assurance (IA) Assessment of PESA

Cheetah Release (Rel.) 5.1 (Tracking Number 1206801),” Draft

Enclosure 2

CERTIFICATION TESTING SUMMARY

1. SYSTEM TITLE. PESA Cheetah with Release 5.1 with Release 5.1; hereinafter referred to as the System Under Test (SUT). 2. SPONSOR. United States Northern Command, Headquarters (USNORTHCOM HQ). Jeffery E. Hosack, 250 Vandenberg Street, Peterson Air Force Base, Colorado, 80914, e-mail: [email protected]. 3. SYSTEM POC. Mr. Frank Zimmerman, 103 Quality Circle, Suite 210 Huntsville, Alabama 35806, e-mail: [email protected]. 4. TESTER. Joint Interoperability Test Command (JITC), Fort Huachuca, Arizona. 5. SYSTEM DESCRIPTION. The SUT is a closed Video Distribution System (VDS). As a closed VDS, the certified interfaces are all internal to the VDS system and the SUT will not connect to the Defense Information Systems Network (DISN). PESA’s Cheetah line of routing switches offer a range of frames and card configurations. Cheetah routing switchers provide routing with matrix sizes 64X64 up to 1024X1024.

High Density Design - All Cheetah frames are designed to support mobile truck

applications or military tactical operation centers (TOC). Each frame features hot-swappable modules for easy service and all modules employ the latest in digital technology for lower power consumption. All Cheetah routers incorporate redundant, load-sharing power supplies and feature an air flow design for even cooling across all critical components.

Higher Reliability - Input and Output (I/O) modules support sixteen ports per card,

thus limiting the number of signals that can be affected by a single module. Support for redundant power and redundant control are key elements of the frame package allowing users the ability to swap over to backup systems without taking down the entire system.

System Flexibility - By offering a flexible crosspoint architecture, Cheetah can

support signals from 143 Megabits per second (Mbps) up to 3 Gigabits per second (Gbps) and supports broadcast standards including Serial Digital Interface (SDI), High Definition (HD)-SDI, Digital Video Broadcasting (DVB)-Asynchronous Serial Interface (ASI), and 3G-SDI in either optical or copper formats. In addition, Cheetah supports fiber Coarse Wavelength-Division Multiplexing (CWDM) inputs and outputs with up to 16 HD-SDI channels over a single fiber cable. With optional Multiplexer (MUX) and demultiplexer (DEMUX) modules, the Cheetah video router can allow up to 128 audio channels per card to be embedded or de-embedded within the Cheetah video frame.

Frame Expansion - By using a modular approach to inputs and outputs, each

Cheetah frame can be configured in non-square and square configurations as low as 16X16 without requiring complex and expensive frame swap-outs.

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Wide Range of Frame Sizes - With the range of frame sizes, Cheetah offers compact (I/O) configurations and can be configured as compact as 144X144 in just 4 rack unit (RU) or up to 1024X1024 by looping two 41RU frames.

Integrated Audio - The Cheetah router can be integrated with the Distributed

Routing System (DRS) audio system allowing users the flexibility to route embedded Audio Engineering Society (AES) digital audio signals or discrete audio with any SDI/HD-SDI video stream. With DRS integrated audio modules, any audio input can be embedded to any video output.

Comprehensive Control - Cheetah frames provide internal slots for up-to two

system control cards providing complete connectivity control to every I/O. Users can control the router system from any number of remote control panels or through the QuView PNC network control software.

Internal Monitoring and Diagnostics - The Cheetah frame provides signal

management and diagnostics. Smart navigational tools allow preview of system performance, power supply voltages, interior temperature, and fan speed.

Management Description. The SUT is managed directly by logging into a site-

provided Personal Computer (PC) using Cattrax software. The Cattrax control system permits the VDS system administrator/operator to make switches (route video signals from/to sources/destinations), configure the VDS for management, and provide equipment health monitoring and status. The Cheetah may also be controlled by third-party control systems such as Crestron.

Cheetah Small Routing Switchers. PESA’s NE Series sets a baseline for the

Cheetah family of routing switchers supporting Analog Video, Serial Digital, DVB/ASI, and HD-SDI/3G up to 1080p/60. Each frame supports redundant power and control for monitoring and diagnostics of system health. Matrix cards, frame controllers, and power supplies are hot-swappable and can be easily removed from the front of the frame. I/O cards are offered for either fiber or coax interconnects and any mixture of fiber/coax can be supported. The NE Series can be configured to route HD-SDI Multi-Rate, SDI, composite analog video, or high-level analog such as telemetry data. The 64NEX Series supports SDI, HD-SDI, and 3G-SDI only. All inputs feature auto-equalization and auto-rate sensing. The digital output cards support reclocking on all outputs and can be set for bypass if reclocking is not required. DVB-ASI is fully supported on every path. Sync reference inputs accept analog black burst in NTSC or PAL formats as well as high definition Tri-level sync. A large number of control panels are offered for remote control and each system operates with the PESA 3500PRO or PERC200 Control System.

The 64XE Series was designed with the flexibility to support additional outputs. In

just 6RU, this frame can be configured to support up to 64X128. Frames can start with one matrix card installed to support up to 64X64 and then expanded to 64X128 with a second matrix card installed. The 64XE frame is perfect for applications where signals

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need to be linked to a multi-viewer or multiple destinations simultaneously. Additionally, the 64XE supports both fiber and coax I/O offering flexibility in cable management. Fiber sources can be connected directly to each frame, eliminating the need for fiber-to-copper conversion. All cards are hot-swappable with the matrix card, power supplies, and matrix control systems easily removed from the front of the chassis.

PESA’s Cheetah 144NE Fiber Router System supports either ProAV or Broadcast

HD-SDI and 3G-SDI applications. Cheetah 144NE Fiber is expandable in sizes from 36X36 up to 144X144 in the same 4RU frame. It supports the new QFX Series of fiber media extenders for dual link Digital Visual Interface (DVI), HD-SDI, and 3G-SDI. The frame supports redundant power, control, and a hot-swappable 144X144 Crosspoint matrix. I/O cards allow expansion in groups of 36 inputs or 36 outputs per card which simplifies future expansion without the need to replace cards or frames. The PESA Cheetah 144NE Fiber is a modular design featuring eight I/O slots. Each I/O slot supports up to 36 fiber optic connections using standard LC-type fiber SFP modules. The I/O fiber cards are based on 1310nm singlemode lasers but can be used in multimode applications with reduced performance specifications. Singlemode fiber allows signal transports up to 10 Kilometers (Km) while multimode is limited to approximately 600 (meters) m with 50/125 cables.

Cheetah 144NE Fiber supports all QFX Series fiber extender modules. PESAs

VidBlox media extenders allow signal conversion from DVI or Video Graphics Array (VGA) signals up to 2560 X 1600, while the Quadbox™ media extenders allow simple, low-cost fiber to coax conversion. Cheetah 144NE Fiber’s 3G-SDI Transport allows signal switching up to 3Gbps while offering digital switching capability to support SD-SDI, HD-SDI, and 3G-SDI without the need for external media converters. The frame is designed as a high performance HD Multirate video router supporting Society of Motion Pictures and Television Engineers (SMPTE) 259M, 292M, 372M and 424M standards.

Cheetah Large Routing Switchers. The Cheetah XR Series offers multi-format

solutions for larger enterprise-based routing and switching needs. The Cheetah XR series offers features such as fiber-in-the-frame, matrix redundancy (on selected frames), redundant control, and redundant power, and is offered in frames sizes of 18RU, 27RU, and 41RU, the XR Series and can scale to size requirements needed from 288X288 up to a full 1024X1024 by combining two 41RU frames.

Input Cards. All Cheetah input cards are based on 16 channels and provide a one-

screw lock method to keep cards securely in place. Each card is designed with on-board electronics to report health and diagnostics back to the PESA control system or QuView monitoring and diagnostic software.

3.0 Gbps HD Multi-rate Input Card. 16 Channels of HD/3G or Multi-rate signals

from 143Mbs to 3Gbs. Equalization to 100m for SMPTE 292M or 80m for SMPTE 424M. Supports SD and ASI signal data rates.

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HD/3G Fiber Input Card. 16 Channels of 3G/HD/SDI or Multi-rate signals supporting SMPTE 424M, SMPTE 292M or SMPTE 259M data rates. Allows either singlemode or multimode cabling. Modules are small form factor pluggable (SFP) supporting 1310 nanometer (nm) wave lengths. Optional wave lengths are supported on special order. Connector type is small form factor LC.

CWDM - Cheetah V16 Input Card. 16 Channels of CWDM on-board fiber signals

are de-muxed from a single output fiber cable that can be received from 5Km away. Modules use wavelengths from 1410nm to 1610nm. This input card supports HD, SDI, and Multi-rate signals from 3Mbs to 1.5Gbs. Connector type is small form factor LC.

Analog Video Input Card (64NE and CH Frames Only). 16 Channels of analog

video supporting National Television Standards Committee (NTSC) or Phase Alternate Line (PAL) input. Bandwidth up to 50MHz. Also capable of distributing AES/European Broadcasting Union (EBU) 75 Ohm digital audio.

Analog High Level Card (64NE and CH Frames Only). 16 Channels of high level

video with sync levels up to +/- 5V referenced to ground. This card can be used in applications for telemetry or other sine wave type applications where critical high level video paths must be distributed.

Cheetah DEMUX card. 16 Channels of 3G/HD video input with de-embedding

option for all sixteen channels. Interconnects with the Cheetah DRS audio system for de-embedding of AES/Analog/Multichannel Audio Digital Interface (MADI) audio signals. Auto equalization on all inputs and full support of all DRS audio remedies such as gain, delay, and swap.

Output Cards. All Cheetah output cards are based on 16 channels and provide a

one-screw lock down method to keep cards securely in place. Each card is designed to provide on-board diagnostics, monitoring of health, and custom setups.

3G/HD Multi-rate Output Card. 16 Channels of HD or Multi-rate signals from 143

Mbps to 3.0 Gbps. Supports SMPTE 424M, SMPTE 292M, and SMPTE 259M reclocking standards of 143, 177, 270, 1.485 Gbps, and 2.97 Gbps. In addition non-standard signals from 143 Mbps to 3.0 Gbps are supported. With QuView software, each channel can be selected to turn on/off reclocking.

HD Fiber Output Card. 16 Channels of HD /SDI or Multi-rate signals supporting

SMPTE 424M, SMPTE 292M, or SMPTE 259M data rates. Allows either singlemode or multimode cabling. Cards can be set to support reclocking or non-reclocking modes. Modules are SFP (small form factor pluggable) supporting 1310nm wave lengths. Optional wave lengths are supported on special order. Connector type is small form factor LC.

CWDM - Cheetah V16 Output Card. 16 Channels of CWDM on-board fiber signals

are muxed to a single output fiber cable. SFP modules use wavelengths from 1410nm

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to 1610nm. This output card supports HD, SDI, and Mulit-rate signals from 3 Mbps to 1.5 Gbps. Connector type is small form factor LC.

Analog Video Output Card (64NE and CH Frames Only). 16 Channels of analog

video supporting NTSC or PAL outputs. Bandwidth up to 50MHz. Also capable of distributing AES/EBU 75 Ohm digital audio.

Analog High Level Card (64NE and CH Frames Only). 16 Channels of high level

video with sync levels provided for +/- 5V as referenced to ground. This card can be used in applications for telemetry or sine wave type applications where critical high level video paths must be distributed.

Cheetah MUX Card. 16 Channels of SD/HD/3G outputs with embedding options for

AES/Analog/MADI audio. Interconnects with Cheetah DRS Audio system and provides integration and audio remedy controls such as gain, delay, and swap. Up to 128 Channels of audio per card. Each video output supports reclocking for SMPTE 259M, 292M, and 424M up to 3.0 Gbps or can be easily set to by-pass mode for non-standard formats.

VidBlox SL-3G (Transmitter Module). PESA’s VidBlox SL-3G DVI Fiber Optic

Extender transmits DVI or Computer Video signals over fiber or coax cable with the performance characteristics of high definition digital video; based on industry standard SMPTE transports for HD/3G-SDI. The PESA VidBlox series offers pixel-for-pixel transmission of DVI computer video images up to 1920X1200, including 1080p/60. The VidBlox includes EDID emulation coding, internal test patterns, and an input monitoring port.

The VidBlox SL-3G can be integrated into any broadcast facility routing system

allowing integration of DVI or VGA signals alongside traditional 3G-SDI. The SL-3G module, when used in conjunction with the 3G-SL receiver modules, can be setup as an additional transport layer to any 3G-SDI routing system. With the optional fiber ports activated, systems can be setup for long haul video transports well over 10km; and with the parallel coax outputs, local displays can be supported at distances as far as 80m away. The SL-3G supports both singlemode and multimode fiber cabling with an optional duplex SFP pluggable fiber module. Each port supports output data rates up to 1080p/60. Additionally, each SL-3G comes with two BNC ports allowing two additional HD/3G output ports. With a total of four output ports, the SL-3G can be configured to support up to four displays per input. The SL-3G accepts unbalanced stereo audio and embeds the signal for transport over the SMPTE output transport stream. Also included on the output transport video is resolution-format data which when connected to a 3G-SL Receiver unit can properly communicate specific resolutions and format data of the received signal. Each SL-3G can be controlled and configured using the local Universal Serial Bus (USB) port; or using the optional Cattrax software, up to 1024 modules can be managed or monitored over a network connection. In addition to DVI and VGA inputs, each SL-3G can be configured to accept other component video inputs such as

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RGsB, RGBS, and RGBHV where sync levels are different than traditional VGA. Each SL-3G can be used in conjunction with all PESA 3G-SDI routers and distribution gear.

VidBlox SL-3G (Receiver Module). PESA’s VidBlox 3G-SL Fiber and Coax

Scaler/Receiver unit accepts an input of HD/3G video and converts it to single link DVI or VGA. Resolutions up to 1920X1200 are supported for true HD performance. HD/3G video signals are connected to the inputs and DVI/VGA devices are connected to the output. When a high definition SMPTE 292M or 424M formatted video signal is connected, the built-in scaler technology allows proper formatting of the computer generated video output signal to the correct Liquid Crystal Display (LCD) or flat panel display for full pixel output resolution.

The PESA VidBlox series offers pixel-for-pixel transmission of DVI computer video

images up to 1920X1200; including 1080p/60. VidBlox includes Extended Display Identification Data (EDID) emulation coding and internal test patterns. The 3G-SL offers both coax and fiber inputs in the same module. The 3G-SL supports both singlemode and multimode fiber cabling with an optional duplex SFP pluggable fiber input module. Each port supports input data rates up to 1080p/60. Additionally, each 3G-SL module comes standard with two BNC ports allowing two additional 1080p/60 input ports. With a total of four input ports, the 3G-DL can be configured to select any one of up to four incoming signals. Primary and secondary sources can be pre-set via the Cattrax setup program or auto-detected. The 3G-SL de-embeds auxiliary audio to an unbalanced stereo audio output. Also included on the input transport video from a 3G-SL transmitter is resolution-format data allowing each unit to properly communicate the specific resolution and format of the data received. Each 3G-SL can be controlled and configured using the local USB port; or using the optional Cattrax software, up to 1024 modules can be managed or monitored over a network connection. In addition to DVI and VGA, each 3G-SL can be set up to output other component video inputs such as red, green, blue sync on green (RGsB), red, green blue composite sync (RGBS), and red, green, blue separate sync (RGBHV) where sync levels are different than traditional VGA. Each 3G-SL can be used in conjunction with all PESA 3G-SDI routers and distribution gear.

Power Distribution Rack Mount Kits. PESA’s Power Distribution Rack kits offer a

method of managing multiple modules in a rack mounted environment. These power distribution rack mount systems are optimized for PESA’s VidBlox and Quadbox series of extender modules. Sharing a common power supply source, up to four Quadbox series or two VidBlox series units can be installed in the 1RU frame.

Power Efficiency - Units include an Alternating Current (AC) adapter module for

100-240 volts (v), 47-63 Hertz (Hz), 1.2 amps (A) power input providing 12v, 7A output. Deployment options include connectivity methods for a single power source or a redundant power source. AC power is based on a standard International Electrotechnical Commission (IEC) plug for easy adaption to any worldwide AC outlet

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1RU Extender Frame: allows up to two VidBlox modules to be installed in a 1RU frame Includes distribution power module that can power both modules with one power supply 100 volts Alternating Current (vAC) to 240 vAC, 47-63Hz, 1.2 Amps.

2RU Extender Frame: allows up to four VidBlox modules to be installed in a 2RU

frame Includes distribution power module that can power four modules with one power supply 100 vAC to 240 vAC, 47-63Hz, 1.2 Amps. 6. OPERATIONAL ARCHITECTURE. The SUT is a closed Video Distribution System that will not connect externally to the DISN.

7. INTEROPERABILITY REQUIREMENTS. The interface, Capability Requirements (CR) and Functional Requirements (FR), and other requirements for a closed VDS are established by Section 5.3.7 of Reference (c). 7.1 Interfaces. The SUT uses the interfaces shown in Table 2-1 to connect to the Global Information Grid network. This table shows the physical interfaces supported by the SUT and the associated standards.

Table 2-1. VDS (Closed) Interface Requirements

Interface Critical UCR Reference1 Status

Serial (EIA-232) No2 5.3.7.1

Support minimum threshold CRs/FR 2 and meet interface criteria for EIA-232.

10Base-X No2 5.3.7.1

Support minimum threshold CRs/FR 2 and meet interface criteria for IEEE 802.3i.

100Base-X No2 5.3.7.1

Support minimum threshold CRs/FR 2 and meet interface criteria for IEEE802.3u.

1000Base-X No2 5.3.7.1

Support minimum threshold CRs/FR 2 and meet interface criteria for IEEE802.3ab.

Coaxial BNC No2 5.3.7.5

Support minimum threshold CRs/FRs 1, 3 and meet interface criteria for coaxial standards.

Fiber Optic (SM, MM) Yes 5.3.7.5 Support minimum threshold CRs/FRs 1, 3 and

meet interface criteria for single mode and multimode fiber optic ITU-T standards.

NOTES: 1. The annotation of ‘required’ refers to a high-level requirement category. The applicability of each sub-requirement is provided in Enclosure 3. The system under test does not need to provide conditional requirements. However, if a capability is provided, it must function according to the specified requirements in order to be certified for that capability. 2. The SUT shall have the ability to be controlled from an "external master control system" that shall include Serial (EIA-232), Ethernet (TCP/IP), Contact Closure, or combinations thereof.

LEGEND: 802.3ab 1000BaseT Gbps Ethernet over twisted pair at 1 Gbps

(125 Mbps) 802.3i 10BaseT Mbps over twisted pair 802.3u Standard For Carrier Sense Multiple Access With

Collision Detection At 100 Mbps CR Capability Requirement EIA Electronic Industries Alliance EIA-232 Standard for defining the mechanical and electrical

characteristics for connecting Data Terminal Equipment (DTE) and Data Circuit-terminating Equipment (DCE) data communications devices

FR Functional Requirement Gbps Gigabits per second IEEE Institute of Electrical and Electronics Engineers ITU-T International Telecommunications Union-

Telecommunication Standardization Sector Mbps Megabits per second SUT System Under Test UCR Unified Capabilities Requirements

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7.2 CR and FR. CERs have required and conditional features and capabilities that are established by Section 5.3.7 of the UCR 2008, Change 3. The SUT does not need to provide non-critical (conditional) requirements. If they are provided, they must function according to the specified requirements in order to be certified for that capability. The SUT’s features and capabilities and its aggregated requirements in accordance with (IAW) the UCR CER requirements are listed in Table 2-2. Detailed CR/FR requirements are provided in Table 3-1 of Enclosure 3.

Table 2-2. Video Distribution System (Closed) CRs and FRs

CR/FR

ID Capability/Function Applicability

1

UCR Reference

1


Configuration Required 5.3.7.1

IP Network Required 5.3.7.2

Conversion Devices Required 5.3.7.3

Peripheral Interfaces Required 5.3.7.4

Video Tape Recording (VTR) Required 5.3.7.4.1

Network Interfaces Required 5.3.7.5

Capacity Required 5.3.7.6

Availability Required 5.3.7.8


System Diagnostics Required 5.3.7.9


Security Required2 5.3.7.7

NOTES:

1. The annotation of ‘required’ refers to a high-level requirement category. The applicability of each sub-requirement is provided in Enclosure 3.

2. Information assurance testing is accomplished via DISA-led Information Assurance test teams and published in a separate report, Reference (e). LEGEND:



ID Identification

7.3 Information Assurance (IA). Table 2-3 details the IA requirements applicable to the CPE products.

Table 2-3. VDS IA Requirements

Requirement Applicability

(See note.)

UCR Reference

Criteria

General Requirements Required 5.4.6.2

Detailed requirements and associated criteria for VDS are listed in

Reference (e).

Authentication Required 5.4.6.2.1

Integrity Required 5.4.6.2.2

Confidentiality Required 5.4.6.2.3

Non-Repudiation Required 5.4.6.2.4

Availability Required 5.4.6.2.5

NOTE: The annotation of ‘required’ refers to a high-level requirement category of IA requirements from the UCR 2008, Change 3, Section 5.4. The detailed IA requirements are included in Reference (e).

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Table 2-3. VDS IA Requirements LEGEND: IA Information Assurance UCR Unified Capabilities Requirements

VDS Video Distribution System

7.4 Other. None 8. TEST NETWORK DESCRIPTION. The SUT was tested at the JITC, Fort Huachuca, Arizona in a manner and configuration of how it would be deployed as a closed VDS system. Testing the system’s required functions and features was conducted using the test configuration depicted in Figures 2-1.

LEGEND: DVI Digital Visual Interface HDMI High Definition Multimedia Interface PC Personal Computer

SUT System Under Test VGA Video Graphics Array

Figure 2-1. SUT Test Configuration 9. SYSTEM CONFIGURATIONS. Table 2-4 provides the system configurations and hardware and software components tested with the SUT. The SUT was tested in an operationally realistic environment to determine its interoperability capability.

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Table 2-4. SUT Tested System Configurations

System Name Component Hardware/Software Release

PESA Cheetah Release 5.1

Agent Workstation (Site-provided)

Windows 7 Pro SP1 or Windows XP Pro with SPX

Cattrax v3.2.0.0 Build: J10

Mainframe Assembly (includes power supply and Matrix Frame Controller) (See note.)

64NEX-00, 128NE-00, 128XE-00, 128CH-00, 256CH-00, 288XR-00, 288XE-00, 448CH-00 512CH-00, 512XR-00, 1024XR-00, 576XR-00, 864XR-00, CH144NE-3G-FRAME

Matrix Cards (See note.) CH-MATRIX64-3G , CH-MATRIX144-3G

Input Buffer Cards (See note.) CHNE-INPUT-3G-BNC, CH-INPUT-3G-FIB, CH-INPUT-3G-BNC, CH-INPUT-3G-FIB-BD, CH144NE-

INPUT-3G-FB, CH144-INP-3G-FIB-BD, 8190653380, 8190653400

Output Combiner Cards (See note.) CHNE-OUTPUT-3G-BNC, CH-OUTOUT-3G-FIB, CH-OUTPUT-3G-BNC, CH-OUTPUT-3G-FIB-BD, CH144NE-OUTPUT-3G-FB, CH144-OUT-3G-FIB-BD, 81906533360, 81906533370, 81906533390,

81906533410

System Controller Card (See note.) PERC2000, PERC2K-D, PERC2K-S

Fiber I/O and SFP Conversion Modules (See note.) 81901704860, 81901704850, 81901704960, 81901704970, 81901704650, 8191704940

Remote Control Panels (See note.) RCPMP32D, RCPMLTP, RCPMLTP2DM, RCPMLTP2CM, RCPMLTP2LH, RCPMLTP2RH,

RCPMLTP2DL, RCPSLCXY, RCPXY, RCPMLDT, RCPMLDT2, RCP64X, RCPMP32D-NL, RCPMB2, RCPCSD

Quadbox Transport Media Conversion Modules (See note.) QFX-QUAD30-TX-PS-4X4, QFX-QUAD30-TXRX, QFX-QUAD30-4X4C, QFX-QUAD30-4X4F, QFX-4X4-

SWX-NM, QFX-QUAD30-RX-PS-4X4

VidBlox Extender Modules (See note.) VIDBLOX-NE-3G-F, VIDBLOX-3G-NE-F, DL-RKMT-2RU-1PS, VIDBLOX-3G-SL-F, VIDBLOX-SL-3G-F, VIDBLOX-SL-3G-C, VIDBLOX-NE-3G-C, VIDBLOX-3G-SL-C, VIDBLOX-3G-NE-C, DL-RKMT-1RU-1PS,

DL-RKMT-1RU-2PS, DL-RKMT-2RU-2PS

Extenders – DVI and HDMI (See note.) PRO-DVI-CAT, PRO-DVI-CAT-PLG, PRO-HDMI2HD, PRO-HDMI-BNC, PRO-HD2HDMI, PRO-HDMI-

CAT, PRO-HDMI-CAT-PLG

Sabertooth (See note.) SABTH-30TXRX-PS, SABTH-30TX-PS, SABTH-30RX-PS, SABTH-3PS

NOTE: The components bolded and underlined were tested at JITC. The components not bolded and underlined were not tested; however, they use the same software and similar hardware. JITC analysis that they are identical for interoperability certification purposes and they are also covered under this certification. LEGEND: DVI Digital Visual Interface HDMI High Definition Multimedia Interface I/O input/output Jitc Joint Interoperability Test Command

SFP small form factor pluggable SP Service Pack SUT System Under Test

10. TESTING LIMITATIONS. None. 11. INTEROPERABILITY EVALUATION RESULTS. The SUT meets the critical interoperability requirements for a closed VDS in accordance with UCR 2008, Change 3, section 5.3.7, and is certified for joint use. Additional discussion regarding specific testing results is located in subsequent paragraphs. 11.1 Interfaces. The interface status of the SUT is provided in Table 2-5.

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Table 2-5. SUT Interface Interoperability Status

Interface Critical UCR Reference Threshold CR/FR1 Status

Serial (EIA 232) No2 5.3.7.1 2 Not Tested



1000Base-X No2 5.3.7.1 2 Not Tested

Coaxial BNC No 5.3.7.5 1, 3 Certified

Fiber Optic (SM, MM) Yes 5.3.7.5 1, 3 Certified NOTES: 1. The annotation of ‘required’ refers to a high-level requirement category. The applicability of each sub-requirement is provided in Enclosure 3. The system under test does not need to provide conditional requirements. However, if a capability is provided, it must function according to the specified requirements in order to be certified for that capability. 2. The SUT shall have the ability to be controlled from an "external master control system" this ability shall be via Serial (EIA-232), TCP/IP-(Ethernet), Contact Closure, or combinations thereof. LEGEND: BNC Bayonet Neill–Concelman CR Capability Requirement EIA Electronic Industries Alliance EIA-232 Standard for defining the mechanical and electrical


FR Functional Requirement MM Single Mode SM Multi-Mode SUT System Under Test TCP/IP Transmission Control Protocol/Internet Protocol UCR Unified Capabilities Requirements

11.2 CR and FR. The SUT CR and FR status is depicted in Table 2-6. Detailed CR/FR requirements are provided in Enclosure 3, Table 3-1.

Table 2-6. SUT CR and FR Status

CR/FR ID

Capability/Function Applicability1

UCR Reference

Status

1


Configuration Required 5.3.7.1 Met

IP Network Required 5.3.7.2 Met

Conversion Devices Required 5.3.7.3 Met

Peripheral Interfaces Required 5.3.7.4 Met

Video Tape Recording (VTR) Standards Required 5.3.7.4.1 Met

Network Interfaces Required 5.3.7.5 Met

Capacity Required 5.3.7.6 Met

Availability Required 5.3.7.8 Met


System Diagnostics Required 5.3.7.9 Met


Security Required 5.3.7.7 Met2

NOTES:

1. The annotation of ‘required’ refers to a high-level requirement category. The applicability of each sub-requirement is provided in Enclosure 3.

2. Information assurance testing is accomplished via DISA-led Information Assurance test teams and published in a separate report, Reference (e). LEGEND:



ID Identification

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a. Product Interface Requirements. The UCR 2008, Change 3, section 5.3.7 states the VDS shall support a minimum of fiber optic interfaces and conditionally can support coaxial interfaces. The SUT offers both fiber optic (single and multi-modes) and coaxial interfaces for video. Additionally the SUT shall have the ability to be controlled from an "external master control system" this ability shall be via Serial (Electronic Industries Alliance [EIA]-232), Ethernet (Transmission Control Protocol/Internet Protocol [TCP/IP]), Contact Closure, or combinations thereof. The SUT management control is via Ethernet 10/100BaseT interfaces.

b. VDS Requirements

(1) The UCR 2008, Change 3, paragraph 5.3.7.1(1), states that the VDS shall

provide the ability to transfer the Audio/Visual (A/V) signals in a variety of configurations, including - but not limited to: Seat (console) to Seat, Seat to display device or processor, Seat to Video Teleconferencing (VTC) equipment, Seat to other A/V equipment, other A/V equipment to other A/V equipment, other A/V equipment to Seat. The SUT met this requirement with testing demonstrating Seat to Seat, Seat to display device, and other A/V equipment to Seat. (2) The UCR 2008, Change 3, paragraph 5.3.7.1(2), states that the VDS shall be scalable for distributing incoming signal feeds from multiple video sources and routed to multiple video display receivers as needed by operational requirements. The SUT met this requirement with testing.

(3) The UCR 2008, Change 3, paragraph 5.3.7.1(3), states that the VDS shall be a closed system; inaccessible from connected networks. The SUT met this requirement with testing having no IP connection to another network and is certified for joint use as a closed system with no external connections.


provide the ability to display signals from any source device to any compatible destination device, including intermediate display aggregators. The SUT met this requirement with testing, demonstrating switching between their source device, destination device, and switch matrix.


have the ability to be controlled from an "external master control system" that shall include serial (EIA-232), Ethernet (TCP/IP), Contact Closure, or combinations thereof. The SUT met this requirement using Ethernet (TCP/IP). The SUT is managed directly by logging into a site-provided PC using Cattrax software. The Cattrax control system permits the VDS system administrator/operator to make switches (route video signals from/to sources/destinations), configure the VDS for management, and provide equipment health monitoring and status.


provide at least one sub-control position with System Administrator permission access

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control. The SUT met this requirement with testing, demonstrating the capability of adding multiple user accounts and limiting their rights.

(7) The UCR 2008, Change 3, paragraph 5.3.7.1(7), states that the VDS needs

to be dynamic, transparent and capable of understanding the capabilities of the display based on the input source, to provide the necessary equipment resolutions and information required by the peripheral equipment connected. The SUT met this requirement with testing, demonstrating the capability of using their source device and destination device for automatic detection.

(8) The UCR 2008, Change 3, paragraph 5.3.7.2, states that the VDS System

shall support Internet Protocol version 4 (IPv4) and its features as defined in section 5.3.1.3.5 Protocols. The SUT met this requirement with testing, using IPv4 for management, control and diagnostics. Internet Protocol version 6 (IPv6) is not required for a closed VDS.


scale from High-resolution (1920x1200 WUXGA) computer video to standard viewable SMPTE HD-SDI format and support upwards and downwards standard and custom resolution signal processing. The SUT met this requirement with testing, demonstrating the capability of using their host client software for control and management.

(10) The UCR 2008, Change 3, paragraph 5.3.7.3(2), states that conversion

devices shall allow the user to specify automatic format conversion or user defined set formats for display resolution and aspect ratio (4:3 or 16:9). The SUT met this requirement with testing, demonstrating the capability of the user to specify automatic format conversion or user defined set formats for display resolution and aspect ratio (4:3 or 16:9).


devices compatible with standard SMPTE signal formats shall be tested independently of the switch matrix and verified for proper operation without the need for proprietary test equipment. The SUT met this requirement with testing, demonstrating the capability of using a source device and a destination device independent of the switch matrix.

(12) The UCR 2008, Change 3, paragraph 5.3.7.3(4), states that VDS interfaces

and media conversion devices shall support local HD-SDI/VGA/DVI loop-through outputs (as needed for the video source format) for local monitoring. The SUT met this requirement with testing and vendor’s letters of compliance (LoC) supporting local HD-SDI/VGA/DVI loop-through outputs.

(13) The UCR 2008, Change 3, paragraph 5.3.7.3(5), states that Conversion

devices shall support both legacy analog VGA and digital DVI equipped devices. The SUT met this requirement with testing, demonstrating the capability of supporting both legacy analog VGA and digital DVI equipped devices.

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devices shall also auto-detect which type signal is present and convert as required to provide compatibility with the VDS switch matrix. The SUT met this requirement with testing, demonstrating the capability of having the destination device auto detect interfaces with their VDS switch matrix.

(15) The UCR 2008, Change 3, paragraph 5.3.7.3(7), states that video

conversion devices shall support all current cabling standards. The SUT met this requirement with testing and with vendor’s LoC for fiber optic, Ethernet, and coaxial cable standards.


devices shall support Ethernet (copper-fiber) access to diagnostic information and control, including the following:

(a) Complete information about the device.

(b) Physical identification of hardware and system error log. The SUT met this requirement with testing to control, manage and diagnose system components using Ethernet 10/100BaseT.

(17) The UCR 2008, Change 3, paragraph 5.3.7.4(1), states that the VDS

equipment shall be configured with hot swappable peripherals for critical components to reduce disruptions of services. The SUT met this requirement with testing and is capability of using hot swappable peripherals.

(18) The UCR 2008, Change 3, paragraph 5.3.7.4(2), states that allow for future input and output expansion beyond initial deployment capacity. The SUT met this requirement with testing, demonstrating the capability of expanding their system to install more expansion frames.

(19) The UCR 2008, Change 3, paragraph 5.3.7.4(3), states that all VDS

solutions shall have the ability to display high-definition video and applications. The SUT met this requirement with testing, demonstrating the capability of using HDMI interfaces on their destination device.

(20) The UCR 2008, Change 3, paragraph 5.3.7.4(4), states VDS peripherals

shall support analog component and VGA computer interfaces with internal scaling capability to allow the end user to specify different input or output resolutions as required matching the configuration of existing installed equipment. The SUT met this requirement with testing, demonstrating the capability of using the Cattrax software to manage and control their source and destination device specifying different input and output resolutions to match existing installed equipment.

(21) The UCR 2008, Change 3, paragraph 5.3.7.4(5), states that all input, output

and matrix cards shall be hot-swappable without disrupting other signal paths currently

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in use in the active VDS router. The SUT met this requirement with testing, demonstrating the ability to hot-swap without disrupting other signal paths currently in use.


support the following interfaces:

(a) Digital Visual Interface (digital and analog) (DVI-I)

(b) DVI

(c) Multi-Rate SDI

(d) VGA

The SUT met this requirement for the source and destination devices with testing and vendor’s LoC.

(23) The UCR 2008, Change 3, paragraph 5.3.7.4(7), states that redundant power supplies shall be hot-swappable to allow for service and repairs while an active VDS router is in use. However, single power supply systems can still be procured. The SUT met this requirement with the capability of using dual power supplies.

(24) The UCR 2008, Change 3, paragraph 5.3.7.4.1(1), states that the VDS shall

accept and route digital standard definition video in the following SMPTE formats:

(a) SMPTE 259M: the Serial Digital Interface (SD-SDI)

(b) SMPTE 344M: Enhanced Serial Digital Interface (ED-SDI)

(c) SMPTE 292M: High Definition Serial Digital Interface (HD-SDI)

(d) SMPTE 372M: High Definition Serial Digital Interface HD-SDI (DL HD-SDI)

(e) SMPTE 424M: 3 Gbit/s Serial Digital Interface (3G-SDI)

(f) SMPTE 291M: Ancillary Data Packet and Space Formatting

(g) Digital Picture Exchange

The SUT met this requirement with testing and vendor’s LoC via their Switch Matrix, source and destination devices.

(25) The UCR 2008, Change 3, paragraph 5.3.7.5(1), states that the VDS switch

and associated signal conversion equipment shall support fiber optical interconnects for security and signal integrity to extend equipment interconnection distances. The SUT met this requirement with testing, demonstrating the capability of supporting both single mode and multi-mode fiber interfaces.


and associated signal conversion equipment shall support coaxial interconnects. The SUT met this requirement with testing, demonstrating the ability to interface via coaxial.

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(27) The UCR 2008, Change 3, paragraph 5.3.7.6(1), states that all VDS solutions A/V shall allow the user to add inputs independently of adding outputs. Similarly, the VDS solution shall allow end users to add outputs independently of inputs. The SUT met this requirement with testing, demonstrating the ability to add inputs independently of adding outputs and adding outputs independently of adding inputs for source and destination devices.


matrix shall support a minimum of 50 percent expansion capability on inputs and outputs by installing additional plug-in input cards, output cards, matrix cards and power supplies without disrupting existing signal paths. The SUT met this requirement with testing, demonstrating the capability of adding an additional switch matrix or upgrading to a higher capacity switch matrix beyond 50 percent.

(29) The UCR 2008, Change 3, paragraph 5.3.7.6(3), states that technical

solution shall be deployed in industry standard equipment racks. The SUT met this requirement with testing, demonstrating the capability of using industry standard 19 in equipment racks.

(30) The UCR 2008, Change 3, paragraph 5.3.7.7, security is tested DISA-led

Information Assurance test teams and is published in a separate report, Reference (f). (31) The UCR 2008, Change 3, paragraph 5.3.7.8(1), states that for mission

critical applications redundancy for power shall include two hot-swappable power supplies with individual power cords. The SUT met this requirement with the capability of using two hot-swappable power supplies for redundancy.

(32) The UCR 2008, Change 3, paragraph 5.3.7.8(2), states that the switch

control shall include a local primary control mode that supports a secondary external control mode as needed for redundancy. The SUT met this requirement with testing, demonstrating the capability of using a host computer with Cattrax installed and a separate remote control.

(33) The UCR 2008, Change 3, paragraph 5.3.7.8(3), states that equipment

shall operate 24/7/365 with the exception of scheduled maintenance. The SUT met this requirement with vendor’s LoC.

(34) The UCR 2008, Change 3, paragraph 5.3.7.8(4), states that the number of

Unscheduled Interruption (UI) events shall be no more than 4.38 events per year. The SUT met this requirement with vendor’s LoC.

(35) The UCR 2008, Change 3, paragraph 5.3.7.8(5), states that the duration of

UI events shall be no more than 2 hours per event. The UCR 2008, Change 3, Table 5.3.7-1 depicts the number of hours per event per year. The SUT met this requirement with vendor’s LoC.

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(36) The UCR 2008, Change 3, paragraph 5.3.7.8(6), states that the duration of scheduled outages shall be no longer than 0.5 hrs per month and 6 hours a year. The SUT met this requirement with vendor’s LoC.

(37) The UCR 2008, Change 3, paragraph 5.3.7.8(7), states that all outages or

service disruptions to the system shall be correctable within 2 hours using normal maintenance procedures. The SUT met this requirement with vendor’s LoC.

(38) The UCR 2008, Change 3, section 5.3.7.9(1), states that both the VDS

switch matrix and the signal conversion devices shall provide an extensive set of system diagnostics to verify and validate proper system operation and system status information. The SUT met this requirement with testing, demonstrating the capability of supporting IPv4 connections to its equipment for diagnostics.

(39) The UCR 2008, Change 3, section 5.3.7.9(2), states that the VDS master switch shall provide complete information about the device, including all software and firmware revisions, type of device, model number, IP address, serial number, Media Access Control (MAC) address, input signal resolution, original signal resolution, the physical location of the unit (customer input at time of installation), internal temperatures of the unit, fan speed and status of each fan associated with the unit, and an error log pertaining to the unit. The SUT met this requirement with testing, demonstrating the capability of its Cattrax software to display the pertinent system information.

(40) The UCR 2008, Change 3, section 5.3.7.9(3), states that to aid in

diagnostics, each unit shall be able to output an internally generated signal in place of the input signal and /or an audio tone in place of the incoming audio. To ease identification of units, there shall be a choice of at least 15 different internal video sources. The SUT met this requirement with testing.

(41) The UCR 2008, Change 3, section 5.3.7.9(4), states that the VDS system

shall have the capability to monitor power level information from a centralized monitoring and diagnostic VDS control location. Signal presence and strength will be available in a fiber circuit and presence only in a coaxial circuit. This will help in system troubleshooting when signal paths are disconnected and for security purposes to monitor signal emissions against the baseline when deployed. The SUT met this requirement with testing.

(42) The UCR 2008, Change 3, section 5.3.7.9(5), states the VDS switch and

associated signal conversion equipment shall provide signal presence status (active/inactive) feedback for system diagnostics. The SUT met this requirement with testing.

(43) The UCR 2008, Change 3, section 5.3.7.9(6), states that the VDS fiber optic

launch power levels and optical power received levels shall be monitored and available for centralized monitoring to help in system troubleshooting when signal paths are

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disconnected. The SUT met this requirement with testing, demonstrating the capability of supporting IPv4 connection to the equipment via using their Cattrax software.

(44) The UCR 2008, Change 3, section 5.3.7.9(7), states that the VDS will

provide robust error logging of video power and signaling forensics. The SUT met this requirement with testing.

(45) The UCR 2008, Change 3, section 5.3.7.9(8), states that the following

information shall be readily available to the user via remote access or computer Graphical User Interface (GUI): power supply loading, fan operation, operating temperatures, input / output / matrix card presence, signal format and signal presence. The SUT met this requirement with testing.

(46) The UCR 2008, Change 3, section 5.3.7.9(9), states that the VDS switch

matrix and conversion units shall support network connectivity as DISA-compliant devices to allow monitoring and control from a central location without requiring direct connection to a Defense Switched Network (DSN)/DISN network. The SUT met this requirement with testing, demonstrating the capability of supporting IPv4 connection to the equipment via using their Cattrax software.

(47) The UCR 2008, Change 3, section 5.3.7.9(10), states that the VDS switch

matrix shall support local control monitoring and remote control monitoring to a third-party interface. The SUT met this requirement with testing, demonstrating the capability of supporting IPv4 connection to the equipment via using their Cattrax software. 11.3 Information Assurance. Security is tested by DISA-led Information Assurance test teams and published in a separate report, Reference (e).

11.4 Other. None 12. TEST AND ANALYSIS REPORT. No detailed test report was developed in accordance with the Program Manager’s request. JITC distributes interoperability information via the JITC Electronic Report Distribution (ERD) system, which uses Unclassified-But-Sensitive Internet Protocol Router Network (NIPRNet) e-mail. More comprehensive interoperability status information is available via the JITC System Tracking Program (STP). The STP is accessible by .mil/gov users on the NIPRNet at https://stp.fhu.disa.mil. Test reports, lessons learned, and related testing documents and references are on the JITC Joint Interoperability Tool (JIT) at http://jit.fhu.disa.mil (NIPRNet). Information related to DSN testing is on the Telecom Switched Services Interoperability (TSSI) website at http://jitc.fhu.disa.mil/tssi. Due to the sensitivity of the information, the Information Assurance Accreditation Package (IAAP) that contains the approved configuration and deployment guide must be requested directly through government civilian or uniformed military personnel from the Unified Capabilities Certification Office (UCCO), e-mail: disa.meade.ns.list.unified-capabilities-certification-office@mail.mil.

Enclosure 3

SYSTEM FUNCTIONAL AND CAPABILITY REQUIREMENTS

The Video Distribution System (VDS) have required and conditional features and capabilities that are established by Section 5.3.7 of the Unified Capabilities Requirements (UCR) 2008, Change 3. The SUT need not provide conditional requirements. If they are provided, they must function according to the specified requirements in order to be certified for that capability. The detailed Functional Requirements (FR) and Capability Requirements (CR) for a VDS are listed in Table 3-1. Detailed Information Assurance (IA) requirements are included in Reference (e) and are not listed below.

Table 3-1. Video Distribution System Capability/Functional Requirements

ID Requirement UCR

Reference Required or Conditional

1

The VDS shall provide the ability to transfer the A/V signals in a variety of configurations, including - but not limited to: Seat (console) to Seat, Seat to display device or processor, Seat to VTC equipment, Seat to other A/V equipment, other A/V equipment to other A/V equipment, other A/V equipment to Seat.

5.3.7.1(1) R

2 The VDS shall be scalable for distributing incoming signal feeds from multiple video sources and routed to multiple video display receivers as needed by operational requirements

5.3.7.1(2) R

3 The VDS shall be a closed system; inaccessible from connected networks. 5.3.7.1(3) R

4 The VDS shall provide the ability to display signals from any source device to any compatible destination device, including intermediate display aggregators. (i.e Knowledge Wall)

5.3.7.1(4) R

5 The VDS shall have the ability to be controlled from an "external master control system" this ability shall be via Serial Communications (EIA-232), TCP/IP-(Ethernet), Contact Closure, or combinations thereof.

5.3.7.1(5) R

6 The VDS shall provide at least one sub-control position with System Administrator permission access control.

5.3.7.1(6) R

7

The VDS needs to be dynamic, transparent and capable of understanding the capabilities of the display based on the input source, to provide the necessary equipment resolutions and information required by the peripheral equipment connected.

5.3.7.1(7) R

8 The VDS System shall support IPv4 and its features as defined in section 5.3.1.3.5

Protocols. 5.3.7.2(1) R

9 The VDS shall scale from high-resolution (1920x1200 WUXGA) computer video to standard viewable SMPTE HD-SDI format and support upwards and downwards standard and custom resolution signal processing.

5.3.7.3(1) R

10 Conversion devices shall allow the user to specify automatic format conversion or user defined set formats for display resolution and aspect ratio (4:3 or 16:9).

5.3.7.3(2) R

11 Conversion devices compatible with standard SMPTE signal formats shall be tested independently of the switch matrix and verified for proper operation without the need for proprietary test equipment.

5.3.7.3(3) R

12 VDS interfaces and media conversion devices shall support local HD-SDI/VGA/DVI loop-through outputs (as needed for the video source format) for local monitoring.

5.3.7.3(4) R

13 Conversion devices shall support both legacy analog VGA and digital DVI equipped devices.

5.3.7.3(5) R

14 Conversion devices shall also auto-detect which type signal is present and convert as required to provide compatibility with the VDS switch matrix.

5.3.7.3(6) R

15 Video conversion devices shall support all current cabling standards. 5.3.7.3(7) R

16

Conversion devices shall support Ethernet (copper-fiber) access to diagnostic information and control, including the following: a. Complete information about the device. b. Physical identification of hardware and system error log

5.3.7.3(8) R

17 The VDS equipment shall be configured with hot swappable peripherals for critical components to reduce disruptions of services.

5.3.7.4(1) R

18 Allow for future input and output expansion beyond initial deployment capacity. 5.3.7.4(2) C

19 All VDS solutions shall have the ability to display HD video and applications. 5.3.7.4(3) R

3-2

Table 3-1. Video Distribution System Capability/Functional Requirements (continued)

ID Requirement UCR


20 VDS peripherals shall support analog component and VGA computer interfaces with internal scaling capability to allow the end user to specify different input or output resolutions as required matching the configuration of existing installed equipment.

5.3.7.4(4) R

21 All input, output and matrix cards shall be hot-swappable without disrupting other signal paths currently in use in the active VDS router.

5.3.7.4(5) R

22

The VDS shall support the following interfaces: a. DVI-I b. DVI c. Multi-Rate SDI d. VGA

5.3.7.4(6) R

23 Redundant power supplies shall be hot-swappable to allow for service and repairs while an active VDS router is in use. However, single power supply systems can still be procured.

5.3.7.4(7) C

24

The VDS shall accept and route digital standard definition video in the following SMPTE formats: a. SMPTE 259M: the Serial Digital Interface (SD-SDI) b. SMPTE 344M: Enhanced Serial Digital Interface (ED-SDI) c. SMPTE 292M: High Definition Serial Digital Interface (HD-SDI) d. SMPTE 372M: High Definition Serial Digital Interface HD-SDI (DL HD-SDI) e. SMPTE 424M: 3 Gbit/s Serial Digital Interface (3G-SDI) f. SMPTE 291M: Ancillary Data Packet and Space Formatting g. Digital Picture Exchange

5.3.7.4.1(1) R

25 The VDS switch and associated signal conversion equipment shall support fiber optical interconnects for security and signal integrity to extend equipment interconnection distances.

5.3.7.5(1) R

26 The VDS switch and associated signal conversion equipment shall support Coaxial interconnects.

5.3.7.5(2) C

27 All VDS solutions A/V shall allow the user to add inputs independently of adding outputs. Similarly, the VDS solution shall allow end users to add outputs independently of inputs.

5.3.7.6(1) R

28 The VDS switch matrix shall support a minimum of 50% expansion capability on inputs and outputs by installing additional plug-in input cards, output cards, matrix cards and power supplies without disrupting existing signal paths.

5.3.7.6(2) R

29 Technical solution shall be deployed in industry standard equipment racks. 5.3.7.6(3) R

30 The VDS shall adhere to all appropriate STIGs. 5.3.7.7(1) R

31 For mission critical applications redundancy for power shall include two hot-swappable power supplies with individual power cords.

5.3.7.8(1) R

32 The switch control shall include a local primary control mode that supports a secondary external control mode as needed for redundancy.

5.3.7.8(2) R

33 Equipment shall operate 24/7/365 with the exception of scheduled maintenance. 5.3.7.8(3) R

34 The number of UI events shall be no more than 4.38 events per year. 5.3.7.8(4) R

35 The duration of UI events shall be no more than 2 Hours per event. Table 5.3.7-1 depicts the number of hours per event per year.

5.3.7.8(5) R

36 The duration of scheduled outages shall be no longer than 0.5 hours per month and 6 hours a year.

5.3.7.8(6) R

37 All outages or service disruptions to the system shall be correctable within 2 hours using normal maintenance procedures.

5.3.7.8(7) R

38 Both the VDS switch matrix and the signal conversion devices shall provide an extensive set of system diagnostics to verify and validate proper system operation and system status information.

5.3.7.9(1) R

39

The VDS Master Switch shall provide complete information about the device, including all software and firmware revisions, type of device, model number, IP address, serial number, MAC address, input signal resolution, original signal resolution, the physical location of the unit (customer input at time of installation), internal temperatures of the unit, fan speed and status of each fan associated with the unit, and an error log pertaining to the unit.

5.3.7.9(2) R

40

To aid in diagnostics, each unit shall be able to output an internally generated signal in place of the input signal and /or an audio tone in place of the incoming audio. To ease identification of units, there shall be a choice of at least 15 different internal video sources.

5.3.7.9(3) R

3-3

Table 3-1. Video Distribution System Capability/Functional Requirements (continued)

ID Requirement UCR


41

The VDS system shall have the capability to monitor power level information from a centralized monitoring and diagnostic VDS control location. Signal presence and strength will be available in a fiber circuit and presence only in a coaxial circuit. This will help in system troubleshooting when signal paths are disconnected and for security purposes to monitor signal emissions against the baseline when deployed.

5.3.7.9(4) R

42 The VDS switch and associated signal conversion equipment shall provide signal presence status (active/inactive) feedback for system diagnostics.

5.3.7.9(5) R

43 The VDS fiber optic launch power levels and optical power received levels shall be monitored and available for centralized monitoring to help in system troubleshooting when signal paths are disconnected.

5.3.7.9(6) R

44 The VDS will provide robust error logging of video power and signaling forensics. 5.3.7.9(7) R

45 The following information shall be readily available to the user via remote access or computer GUI: power supply loading, fan operation, operating temperatures, input / output / matrix card presence, signal format and signal presence.

5.3.7.9(8) R

46 The VDS switch matrix and conversion units shall support network connectivity as DISA-compliant devices to allow monitoring and control from a central location without requiring direct connection to a DSN / DISN network.

5.3.7.9(9) R

47 The VDS switch matrix shall support local control monitoring and remote control monitoring to a third-party interface.

5.3.7.9(10) R

LEGEND: A/V Audio/Visual C Conditional DISA Defense Information Systems Agency DISN Defense Information Systems Network DSN Defense Switched Network DVI Digital Visual Interface DVI-I Digital Visual Interface (digital and analog) EIA Electronic Industries Alliance EIA-232 Standard for defining the mechanical and electrical


GUI Graphical User Interface HD High Definition

ID Identification IP Internet Protocol IPv4 Internet Protocol version 4 MAC Media Access Control R Required SDI Serial Digital Interface SMPTE Society of Motion Pictures and Television Engineers STIGS Security Technical Implementation Guides TCP/IP Transmission Control Protocol/Internet Protocol UI Unscheduled Interruption UCR Unified Capabilities Requirements VDS Video Distribution System VGA Video Graphics Array VTC Video Teleconferencing

Documents

DEFENSE INFORMATION SYSTEMS AGENCY - JITCjitc.fhu.disa.mil/tssi/cert_pdfs/pesa_cheetah_vds_r_5_1... · 2013-01-08 · SUBJECT: Joint Interoperability Test Certification of the PESA