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Volume 13 Number 11 November 2011<br />

An RTC Group Publication<br />

cotsjournalonline.com<br />

Tech Focus: ATCA Blades<br />

and Systems Roundup<br />

The Journal of<br />

Military Electronics & Computing<br />

PLUS:<br />

Embedded Networking Solutions<br />

Ease ISR Data Overload Challenges<br />

—<br />

JTRS and WIN-T Programs Put<br />

Through Paces in Test Activities


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Design, Engineering, Manufacturing & Tech Support<br />

www.rtd.com AS9100 and ISO 9001 Certifi ed sales@rtd.com<br />

Copyright © 2011 RTD Embedded Technologies, Inc. All rights reserved.<br />

All trademarks or registered trademarks are the property of their respective companies.


10<br />

The Journal Journal of<br />

Military Military Electronics Electronics & Computing<br />

Computing<br />

<strong>Power</strong> Supplies Meet Demanding Needs<br />

of Board and Box-Level Systems<br />

CONTENTS<br />

November 2011 Volume 13 Number 11<br />

SPECIAL FEATURE<br />

<strong>Power</strong>ing Board and Box-Level Systems<br />

10 <strong>Power</strong> Supplies Meet Demanding Needs of Board and Box-Level Systems<br />

Jeff Child<br />

20 Advanced Battery <strong>Technology</strong> Shrinks Military Energy Costs<br />

David McShane, International Battery<br />

28 <strong>Inrush</strong> <strong>Current</strong> <strong>Control</strong> <strong>Technology</strong> <strong>Boosts</strong> <strong>Power</strong> <strong>Converter</strong> <strong>Reliability</strong><br />

Steve Butler, VPT<br />

TECH RECON<br />

Managing and Processing the ISR Data Deluge<br />

34 Mobile Ad Hoc Networking Revamps Military Communications<br />

Chris O’Rourke, Cisco Systems, and Stephen B. Johnson, Extreme Engineering Solutions<br />

44 GPGPU <strong>Technology</strong> Eases Persistent Imaging Processing Challenges<br />

Anne Mascarin, Mercury Computer Systems<br />

SYSTEM DEVELOPMENT<br />

JTRS and WIN-T Programs Update<br />

50 JTRS and WIN-T Technologies Take to the Field<br />

Jeff Child<br />

TECHNOLOGY FOCUS<br />

ATCA Blades and Systems<br />

54 ATCA Blades and Systems Fill Unique Military Needs<br />

Jeff Child<br />

56 ATCA Blades and Systems Roundup<br />

Digital subscriptions available: cotsjournalonline.com<br />

COTS (kots), n. 1. Commercial off-the-shelf. Terminology<br />

popularized in 1994 within U.S. DoD by<br />

SECDEF Wm. Perry’s “Perry Memo” that changed<br />

military industry purchasing and design guidelines,<br />

making Mil-Specs acceptable only by waiver. COTS<br />

is generally defined for technology, goods and services<br />

as: a) using commercial business practices and specifications,<br />

b) not developed under government funding,<br />

c) offered for sale to the general market, d) still must<br />

meet the program ORD. 2. Commercial business<br />

practices include the accepted practice of customerpaid<br />

minor modification to standard COTS products<br />

to meet the customer’s unique requirements.<br />

—Ant. When applied to the procurement of<br />

electronics for the U.S. Military, COTS is a procurement<br />

philosophy and does not imply commercial,<br />

office environment or any other durability grade.<br />

E.g., rad-hard components designed and offered for sale<br />

to the general market are COTS if they were developed<br />

by the company and not under government funding.<br />

Departments<br />

6 Publisher’s Notebook<br />

A Betting Man on a Tilt-A-Whirl<br />

8 The Inside Track<br />

60 COTS Products<br />

70 Editorial<br />

Disconnect in the Networked<br />

Vehicle Road<br />

Coming in December<br />

See Page 68<br />

On The Cover: The command and control systems<br />

module (CCSM) on the Virginia-class submarine<br />

integrates all of the vessel’s sensors, countermeasure<br />

technology, navigation and weapon control and is<br />

based on open system architecture (OSA). Here the<br />

pre-commissioned California (SSN 781) gets underway<br />

from Naval Station Norfolk to conduct weapons systems<br />

acceptance trials. It was commissioned on Oct. 29.<br />

(U.S. Navy photo by MCS 2nd Class William Jamieson)


[ 4 ] COTS Journal November 2011<br />

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Untitled-1 1 11/4/11 10:16:37 AM<br />

Untitled-2 1 11/8/11 10:07:39 AM<br />

Publisher<br />

PRESIDENT<br />

John Reardon, johnr@rtcgroup.com<br />

PUBLISHER<br />

Pete Yeatman, mail@yeatmangroup.com<br />

Editorial<br />

EDITOR-IN-CHIEF<br />

Jeff Child, jeffc@rtcgroup.com<br />

MANAGING EDITOR<br />

Sandra Sillion, sandras@rtcgroup.com<br />

COPY EDITOR<br />

Rochelle Cohn<br />

Art/Production<br />

ART DIRECTOR<br />

Kirsten Wyatt, kirstenw@rtcgroup.com<br />

GRAPHIC DESIGNER<br />

Maream Milik, mareamm@rtcgroup.com<br />

LEAD WEB DEVELOPER<br />

Hari Nayar, harin@rtcgroup.com<br />

Advertising<br />

WESTERN REGIONAL SALES MANAGER<br />

Stacy Mannik, stacym@rtcgroup.com<br />

(949) 226-2024<br />

MIDWEST REGIONAL AND INTERNATIONAL SALES MANAGER<br />

Mark Dunaway, markd@rtcgroup.com<br />

(949) 226-2023<br />

EASTERN REGIONAL SALES MANAGER<br />

Shandi Ricciotti, shandir@rtcgroup.com<br />

(949) 573-7660<br />

BILLING<br />

Cindy Muir, cmuir@rtcgroup.com<br />

(949) 226-2000<br />

COTS Journal<br />

The Journal of<br />

Military Electronics & Computing<br />

HOME OFFICE<br />

The RTC Group, 905 Calle Amanecer, Suite 250, San Clemente, CA 92673<br />

Phone: (949) 226-2000 Fax: (949) 226-2050, www.rtcgroup.com<br />

EDITORIAL OFFICE<br />

Jeff Child, Editor-in-Chief<br />

20A Northwest Blvd., PMB#137, Nashua, NH 03063<br />

Phone: (603) 429-8301 Fax: (603) 424-8122<br />

Published by THE RTC GROUP<br />

Copyright 2011, The RTC Group. Printed in the United States. All rights reserved.<br />

All related graphics are trademarks of The RTC Group. All other brand and product<br />

names are the property of their holders.


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[ 6 ] COTS Journal November 2011<br />

Publisher’s<br />

Notebook<br />

A Betting Man on a Tilt-A-Whirl<br />

The U.S. really needs to face facts and once and for all tackle<br />

the issues surrounding how we acquire things for the military.<br />

It’s time to initiate a plan that accommodates changing<br />

Administrations and Congresses and their ever changing vision for<br />

the military’s mission. The military has three basic procurement<br />

environments: immediate, short term and long term. The problem<br />

is all three of these environments have a range to them. Immediate<br />

can range from acquiring software or technology to halt an immediate<br />

cyber attack to finding a stop gap solution for IEDs. At the<br />

other end we have large items ranging from a new tactical vehicle<br />

for the Army and Marines, to the next tactical aircraft for the Air<br />

Force to the next generation aircraft carrier for the Navy.<br />

Resolving the military’s acquisition policy is a lot like riding<br />

a Tilt-A-Whirl. It’s ever changing; you’re not exactly sure where<br />

you are or where you’re going. Our elected officials are focused<br />

on immediate or current issues potentially requiring use of our<br />

military—and military is only one segment of our government.<br />

Will the Arab Spring quickly turn into the Arab nightmare? Will<br />

any of the “rogue” nations require military attention? And do we<br />

need to have a sufficiently strong and feared military presence<br />

to deter any emerging economic powers from attempting to intimidate<br />

us into decisions that are not in our best interest?<br />

The problem of acquisition reform clearly falls into the lap<br />

of Secretary of Defense, Leon Panetta, and the Pentagon acquisition<br />

chief Ashton Carter. They need to propose a structure that<br />

eliminates the “stop, start, shift focus back and forth” approach<br />

to long-term acquisitions. That structure will then be used as the<br />

template for setting in motion the development of systems and<br />

equipment necessary for our military to ensure its success no<br />

matter the mission. A different template will be necessary for the<br />

immediate or short-term—5-7 year— procurement needs. These<br />

two areas require flexibility and a completely different process.<br />

At the detriment of individual political gains, all these structures<br />

have to be insulated from political tampering—something<br />

we have never been able to achieve. The current budget crisis and<br />

sensitivity by voters to political self-serving dealings may provide<br />

Secretary Panetta with an opening to actually make some<br />

meaningful changes to our acquisition process.<br />

One area lacking focus and direction is the U.S. Army vehicle<br />

program. This program falls into the long-term acquisition area…<br />

well, for the most part. We’ve had to throw the MRAP in as an immediate<br />

solution and then stretched it to a short-term requirement.<br />

I don’t think anyone anywhere feels that if we had a 10-year development<br />

program to find a vehicle to transport a squad of soldiers<br />

as safely as possible in Iraq or Afghanistan, the result would be the<br />

MRAP. We currently have three prongs to our future tactical vehicle<br />

strategy: the Joint Light Tactical Vehicle (JLTV), the Ground Combat<br />

Vehicle (GCV) and the Humvee recap program. I guess there are<br />

a couple others that are on the periphery: the Stryker and the MRAP<br />

All Terrain Vehicle (M-ATV). This last one, the M-ATV, is like trying<br />

to put an extra leg on a set of crutches (MRAP) and telling the<br />

patient he won’t have any trouble walking through the rock quarry.<br />

The JLTV is a joint program between the Army and the<br />

Marines started in 2006, and it has yet to set what the design<br />

requirements are. Nor has it been decided yet how many are<br />

needed or how much they will cost. BAE was awarded a $450M<br />

contract and General Dynamics was awarded a $440M contract<br />

for the two-year <strong>Technology</strong> Demonstration (TD) phase of the<br />

GCV program. The Humvee recap program is just in the preliminary<br />

phase with mostly talk and no money yet. The intent is to<br />

give the Humvee better armor than is now available or provided<br />

even for the current-armored Humvees as well as an improved<br />

suspension and additional features including electronics. The<br />

intent is to extend the Humvee’s life into the 2030s.<br />

The Army anticipates starting to field GCVs in 2017, and<br />

JLTVs…when? Who knows. Not the Army. It’s possible to start<br />

fielding Humvee recaps as early as 2014. So let us sum up: the<br />

military budget is under pressure and will only see greater pressure.<br />

Meanwhile the JLTV doesn’t know what it is or how much<br />

it is. The GCV is just starting work on a TD. The MRAP has its<br />

problems and is extremely restricted in what it can do where.<br />

The Stryker has its issues especially with regard to protecting its<br />

occupants from IEDs and mines, and we have almost 100,000<br />

Humvees we could recap. Can the Army support a GCV, JLTV,<br />

MRAP, M-ATV, Stryker and Humvee? Clearly it can’t, so some<br />

programs have to get off the bus. A betting man might read the<br />

tea leaves this way: JLTV is history, GCV will stay a technology<br />

demonstrator for a long time, fielding something around 2025,<br />

and the Army and Marine Corps will find a way to get along<br />

with recapped Humvees, Strykers and M-ATVs.<br />

Pete Yeatman, Publisher<br />

COTS Journal


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respective owners. PID#50599-A.


The<br />

Inside Track<br />

Lockheed Martin Contracted to Maintain Army Aerostat Detection Systems<br />

The U.S. Army awarded Lockheed Martin a $383 million contract to<br />

maintain, operate and sustain the Persistent Threat Detection Systems<br />

(PTDS). The tethered aerostat provides real-time, around-the-clock reconnaissance<br />

and surveillance of broad geographic areas for warfighters<br />

in Iraq and Afghanistan. The Army’s Program Executive Office for Intelligence,<br />

Electronic Warfare and Sensors, Project Manager for Robotic<br />

and Unmanned Sensors, based at Aberdeen Proving Ground, Md., will<br />

provide program and acquisition management.<br />

Equipped with multiple sensors, PTDS (Figure 1) is an aerostat-based<br />

system that delivers constant day and night, 360 degree detection, surveillance,<br />

monitoring and force protection. It has a sensor integration architecture<br />

designed to support the automated interoperability between tactical/<br />

theater surveillance assets and the dissemination of threat data to operational<br />

forces to aid interdiction of hostile fires and unconventional threats.<br />

PTDS leverages a wide-area, secure communications backbone for the integration<br />

of threat reporting from multiple available sensor assets.<br />

Lockheed Martin, Bethesda, MD. (301) 897-6000.<br />

[www.lockheedmartin.com].<br />

MIT Lincoln Lab Researchers<br />

Develop Radar<br />

That Sees through Walls<br />

MIT Lincoln Laboratory researchers<br />

developed a new radar<br />

system that looks through walls.<br />

This ultrawideband (UWB)<br />

multiple-input, multiple-output<br />

phased-array sensor has realtime<br />

acquisition and processing<br />

capability and provides video-like<br />

synthetic aperture radar (SAR)<br />

images of people moving behind<br />

a concrete wall. The system demonstrated<br />

the ability to capture<br />

meaningful imagery at a 10.8 Hz<br />

frame rate through 4-inch- and<br />

8-inch-thick, as well as cinder<br />

block, walls from a standoff distance<br />

of approximately 20 feet.<br />

The technology will be useful<br />

for providing soldiers in urban<br />

environments with increased<br />

awareness of activity inside or<br />

behind structures. While it is not<br />

possible to see through walls by<br />

using visible light, it is possible by<br />

using larger micro-wavelengths<br />

[ 8 ] COTS Journal November 2011<br />

to radiate into a wall and receive<br />

a weak scattered signal that is<br />

representative of what is behind the<br />

wall. At the core of the system is a<br />

range-gated continuous-wave radar<br />

architecture that provides dynamic<br />

range and sensitivity to acquire<br />

weak signals scattered from targets<br />

behind the wall. The radar set is<br />

connected to an array of UWB<br />

antenna elements consisting of<br />

two subarrays made up of 8 receive<br />

elements and 13 transmit elements.<br />

To see a video, go to http://www.<br />

cotsjournalonline.com/mit<br />

MIT Lincoln Laboratory<br />

Lexington, MA.<br />

(781) 981-5500.<br />

[www.ll.mit.edu].<br />

Quintron Systems Selected<br />

for Three NASA Projects<br />

Quintron Systems announces<br />

three additional contract awards<br />

from NASA for the Quintron<br />

DICES VoIP mission-critical voice<br />

Figure 1<br />

PTDS is an aerostat-based system that delivers constant day and night,<br />

360 degree detection, surveillance, monitoring and force protection.<br />

switch. Two of these represent<br />

follow-on work with existing NASA<br />

customers, while the third is a<br />

NASA-requested expansion to an<br />

existing DICES VoIP system in use<br />

by United Launch Alliance. The first<br />

NASA-direct contract will provide a<br />

second DICES VoIP system to Johnson<br />

Space Center (JSC). This new<br />

system includes a fully redundant<br />

central VoIP server equipped with<br />

six active T1 Gateways and one SIP<br />

Gateway for connectivity to other<br />

NASA voice systems.<br />

The second NASA-direct<br />

system is an expansion for the<br />

existing NASA Ames Research<br />

Center (ARC) Airspace Operations<br />

Laboratory (AOL) system first<br />

delivered in 2008. The third NASA<br />

support contract was just received<br />

to provide an additional ten user<br />

client positions to support NASA<br />

personnel for the upcoming Mars<br />

Science Laboratory (MSL) launch<br />

aboard a United Launch Alliance<br />

(ULA) Atlas V rocket from Cape<br />

Canaveral. The major element of<br />

Figure 2<br />

Mars Science Laboratory (MSL)<br />

launch will include the new<br />

surface rover, Curiosity<br />

this exciting NASA program is the<br />

new surface rover, Curiosity (Figure<br />

2). The launch is scheduled for late<br />

November and the new DICES VoIP<br />

user equipment will support NASA<br />

personnel and provide a touch<br />

screen interface consistent with their<br />

normal operating environment.<br />

Quintron Systems<br />

Santa Maria, CA.<br />

(805) 928-4343.<br />

[www.quintron.com].


Calumet Wins SBIR Award<br />

from U.S. Navy Naval Air<br />

Warfare Center - Aircraft<br />

Division<br />

Calumet Electronics has<br />

been awarded a Small Business<br />

Innovation Research (SBIR)<br />

Phase I Contract Award from<br />

the Naval Air Warfare Center<br />

- Aircraft Division. The Phase<br />

I objective of the award, valued<br />

at about $80,000, is to conduct<br />

research under SBIR Topic<br />

N112-122 titled “Embedded<br />

Single Mode Wave Guides for<br />

High Data Rate Processing.” The<br />

company’s Optical Interconnect<br />

Team has successfully produced<br />

electro/optical printed circuit<br />

boards (EOPCB) and assemblies<br />

(EOPCBA) on rigid substrates<br />

using polymer waveguides and<br />

surface mounted light turning<br />

devices in its Optical Interconnect<br />

Research Lab (OIRL)<br />

(Figure 3).<br />

According to Stephen J.<br />

Marshall, sponsored programs<br />

manager of Calumet, Calumet’s<br />

proposal demonstrated expertise<br />

in- the technical and development<br />

challenges for the requirements<br />

of this award. Electrical transmission<br />

interconnect traces have<br />

already begun to limit overall<br />

capabilities and create multiple<br />

signal routing difficulties because<br />

Figure 3<br />

PCB Production line in Calumet<br />

Electronics’ ITAR registered<br />

facility. The company now does<br />

electro/optical printed circuit<br />

board (EOPCB) and assembly<br />

(EOPCBA) prototyping services<br />

in its Optical Interconnect<br />

Research Lab.<br />

of bandwidth limitations and<br />

high bandwidth design requirements.<br />

Optical waveguides, with<br />

their inherently large transmission<br />

bandwidth capabilities, can<br />

be utilized to alleviate this digital<br />

data transmission bottleneck and<br />

overcome bandwidth limitations.<br />

Calumet Electronics<br />

Calumet, MI<br />

(906) 337-1305.<br />

[www.cec-up.com].<br />

Aitech Offers 12-Year Full<br />

Support Lifecycle Program<br />

Aitech Defense Systems is<br />

now offering full support and a<br />

product availability guarantee for<br />

all boards and systems developed<br />

by the company for a minimum<br />

of 12 years from initial production<br />

date. Aitech’s three-phased<br />

COTS Lifecycle+ program<br />

ensures that in a time when<br />

component obsolescence is on<br />

the rise in many military COTS<br />

applications, customers will be<br />

able to rely on Aitech to obtain<br />

the needed component parts and<br />

support to keep systems running<br />

effectively well into the future.<br />

Each of Aitech’s standard<br />

products consists of the three<br />

product lifecycles, each with a<br />

guaranteed minimum support<br />

period of four years. The active<br />

phase is the initial product<br />

lifecycle, where both the product<br />

and Aitech support are available<br />

for all existing and new programs.<br />

The supported phase extends this<br />

product availability and support<br />

for existing, program-specific<br />

designs for a minimum of another<br />

four years. In the extended support<br />

phase, another four years is<br />

added and brings the full COTS<br />

Lifecycle+ program to a minimum<br />

12 years of program support.<br />

Aitech Defense Systems<br />

Chatsworth, CA.<br />

(888) 248-3248.<br />

[www.rugged.com].<br />

Argon ST Teams with GE<br />

on Shipboard Signals<br />

Intelligence System<br />

GE Intelligent Platforms has<br />

received an order from Argon ST<br />

of Fairfax, Virginia for a quantity<br />

of specially modified VR12<br />

single board computers that will<br />

be deployed as part of the company’s<br />

Ships Signal Exploitation<br />

Equipment (SSEE) system. The<br />

initial order is valued at just over<br />

$1 million, and further orders<br />

totaling $5 million are expected<br />

in the coming years.<br />

Specifically, the VR12—<br />

a rugged 6U VME platform<br />

featuring the Intel Core i7<br />

processor—will play a key role<br />

in data acquisition as part of a<br />

shipboard signals intelligence<br />

(SIGINT) subsystem. The SSEE<br />

allows operators to monitor and<br />

analyze signals of interest within<br />

the Ship’s Signals Exploitation<br />

Space (SSES) aboard a variety<br />

of ship classes (Figure 4). Its use<br />

of COTS hardware and software<br />

ensures that incremental<br />

upgrades to hardware can be<br />

integrated, tested and fielded in<br />

a shorter time than traditional<br />

development efforts. The system<br />

can evolve and adapt quickly<br />

in order to exploit new threat<br />

emergent technology, thus<br />

allowing the Navy to take full<br />

advantage of state-of-the-art<br />

technology being used in the<br />

commercial market. The use of<br />

Figure 4<br />

The Ships Signal Exploitation<br />

Equipment (SSEE) system is<br />

used on a variety of U.S. Navy<br />

ships including the USS Porter<br />

(DDG-78), an Arleigh Burkeclass<br />

destroyer.<br />

Inside Track<br />

COTS hardware common with<br />

other systems also allows more<br />

economical procurement of<br />

hardware and spares.<br />

GE Intelligent Platforms<br />

Charlottesville, VA.<br />

(800) 368-2738.<br />

[www.ge-ip.com].<br />

Event Calendar<br />

December 6<br />

Real-Time & Embedded<br />

Computing Conference<br />

Albuquerque, NM<br />

www.rtecc.com<br />

December 8<br />

Real-Time & Embedded<br />

Computing Conference<br />

Phoenix, AZ<br />

www.rtecc.com<br />

January 17<br />

Real-Time & Embedded<br />

Computing Conference<br />

Santa Clara, CA<br />

www.rtecc.com<br />

January 24-26<br />

AFCEA West 2012<br />

San Diego, CA<br />

www.afcea.org<br />

February 14<br />

Real-Time & Embedded<br />

Computing Conference<br />

Huntsville, AL<br />

www.rtecc.com<br />

February 16<br />

Real-Time & Embedded<br />

Computing Conference<br />

Melbourne, FL<br />

www.rtecc.com<br />

February 22-24<br />

AUSA Winter<br />

Ft. Lauderdale, FL<br />

www.ausa.org<br />

To list your event, email:<br />

sallyb@rtcgroup.com<br />

November 2011 COTS Journal [ 9 ]


Special Feature<br />

<strong>Power</strong>ing Board and Box-Level Systems<br />

[ 10 ] COTS Journal November 2011


Special Feature<br />

<strong>Power</strong> Supplies<br />

Meet Demanding<br />

Needs of Board and<br />

Box-Level Systems<br />

Even within the specific arena of military systems, power<br />

supply needs can vary dramatically. Advanced reliable solutions<br />

smooth the way on the board, brick and component level.<br />

While often an afterthought in embedded military computer system designs,<br />

choosing power supplies and power conversion electronics can become make<br />

or break technical choices. With more and more computing stuffed into<br />

smaller spaces, power has direct implications on the size, cooling and mobility of a<br />

board or box-level system. Add to that the challenges of multi-voltage electronics and<br />

the complexity of distributed system architectures, and it’s clear that military system<br />

designers need solutions that address those needs. Often the unsung hero of a military<br />

system design, power supplies and converters are critical enablers for meeting today’s<br />

rugged requirements.<br />

Vendors are smoothing the way with flexible options and robust solutions. The<br />

good news is that military power conversion vendors are easing the burden with more<br />

efficient products, new partitioning strategies and increased ruggedization. New solutions<br />

continue to roll out, not just at the component or brick level, but also at the module<br />

and board level. The recent emergence of a power supply spec for VPX, called VITA<br />

62, has solved standards issues specifically for the VPX arena.<br />

VITA 62 <strong>Power</strong> Supplies<br />

Starting on the board-level side, the focus of the new VITA 62 standard is to provide<br />

an electrical and mechanical specification that is compatible with VITA 46 and<br />

other specifications in the VPX suite. In the past, a power supply’s form factor and pin<br />

assignment varied from vendor to vendor because of the lack of standardization. Also<br />

because of the nature of the power supply, many were custom designed for the chassis<br />

that they reside in. In order for VITA 62-compliant power supplies to work in a VPX environment,<br />

the standard needs to be compatible to both VITA 46 and VITA 48, which<br />

most of the existing COTS VPX modules are designed to. VITA 46.11, System Management,<br />

is also directly supported. With the advent of VITA 62 power supplies, VPX users<br />

are no longer locked into custom, proprietary power supplies; they have the ability to<br />

purchase interchangeable power supplies from multiple vendors.<br />

November 2011 COTS Journal [ 11 ]


Special Feature<br />

Figure 1<br />

VITA 62 standard power supplies mean<br />

that VPX system developers are no<br />

longer locked into custom, proprietary<br />

power supplies but can instead use<br />

interchangeable power supplies from<br />

multiple vendors.<br />

Figure 2<br />

For ground vehicle requirements, the<br />

most commonly used specification is<br />

MIL-STD-1275. This 28 VDC nominal<br />

specification imposes 100 VDC surges<br />

for up to 100 milliseconds.<br />

Extreme Engineering Solutions (X-<br />

ES) has a VITA 62 offering called the<br />

XPm2120, a conduction-cooled, VITA<br />

62, 3U VPX power supply that takes a<br />

MIL-STD-704 input voltage of 28 VDC<br />

and provides up to 300W of power on the<br />

3.3-volt, 5-volt and 12-volt rails at 90%<br />

efficiency with 12-volt as the primary<br />

power distribution rail in the system.<br />

The XPm2120 was designed to the VITA<br />

62 draft standard. Designed for rugged,<br />

deployed military applications, the slim<br />

0.8-inch pitch XPm2120 integrates MIL-<br />

STD-461E EMI filtering.<br />

More recently, Curtiss-Wright <strong>Control</strong>s<br />

Electronic Systems rolled out its<br />

own VITA 62 product. The 3U OpenVPX<br />

(VITA 62) and VPX (VITA 48.2) Smart<br />

<strong>Power</strong> Supply is a small form factor, rug-<br />

[ 12 ] COTS Journal November 2011<br />

Figure 3<br />

The <strong>Power</strong>tron JL Series of open-frame DC/DC converters are conduction-cooled units<br />

designed for applications where the power supply is mounted inside a sealed enclosure. DC/<br />

DC converters are rated up to 50W and offer full EN50155 compliance as well as the ability<br />

to accept the wide range of typical railway input voltages.<br />

ged power supply module that provides<br />

up to 279W of power. The CWCES Smart<br />

<strong>Power</strong> Supply includes advanced features<br />

such as an integrated Nuclear Event Detector<br />

(NED) and crowbar for radiation-tolerant<br />

applications, and a holdup<br />

circuitry for full protection against MIL-<br />

STD-704 and MILSTD-1275 transients.<br />

The Smart <strong>Power</strong> Supply (Figure 1)<br />

conforms to the 3U VPX (VITA 48.2 / VITA<br />

62) form factor and is offered in a 1.0” pitch<br />

single slot configuration. Fully rugged, the<br />

module is available in conduction-cooled<br />

and Level 2 maintenance variants. This fully<br />

featured intelligent power supply supports<br />

Built-in Tests (BIT) and software programmability<br />

to enable rapid system development.<br />

The device offers 80% efficiency and<br />

an 18-36 VDC input range. Input reverse<br />

polarity protection and over/under voltage,<br />

short-circuit and under/over temperature<br />

protection are supported. A White Sand<br />

Missile Range (WSMR)-tested Nuclear<br />

Event Circumvention circuit is included.<br />

Filtering and Defense Standards<br />

Shifting to the component power supply<br />

side, vendors continue to push the limits in<br />

power, high voltage, wide temperature range<br />

and advanced filtering schemes. Among the<br />

most challenging issues in today’s military<br />

power system designs is making the latest<br />

and greatest power supply and conversion<br />

technologies compliant to military<br />

standards. Defense applications must meet<br />

a number of noise and power related standards<br />

such as MIL-STD-461, MIL-STD-704<br />

and MIL-STD-1275 (Figure 2). Complicating<br />

matters, those standards have a number<br />

of revisions, any of which may be enforced<br />

by an application’s requirements.<br />

One strategy that converter vendors<br />

are enabling is broadening the capability<br />

of existing converter architectures by<br />

providing advanced filtering. Vicor, for<br />

example, offers its MIL-COTS VI BRICK<br />

Filter as a stand-alone filter or integrated<br />

with the PRM Regulator Module. The filter<br />

enables designers using Vicor’s MIL-<br />

COTS VI BRICK and V•I Chip PRMs to<br />

meet conducted emission / conducted<br />

susceptibility per MIL-STD-461E/F, and<br />

input transients per MIL-STD-704A/E/F<br />

and MIL-STD-1275A/B/D. It accepts an<br />

input voltage of 16.5 - 50 VDC and delivers<br />

output power up to 120W.


Figure 4<br />

For harsh rugged military applications,<br />

wide temperature range is key for<br />

power supplies. Designed as a turn-key<br />

solution for applications requiring input<br />

to output isolation, the EW from Calex<br />

offers three input ranges with five output<br />

voltage combinations. This 10 watt<br />

EW Single Output Series of DC/DC converters<br />

offers available input ranges of 9<br />

to 18V, 18 to 36V and 36 to 75 VDC. The<br />

output voltage options are 2.5, 3.3, 5, 12<br />

and 15 VDC. The input to output isolation<br />

is 1500 VDC. All outputs are tightly<br />

regulated for problem-free operation.<br />

The EW is housed in a five-sided shielded<br />

metal enclosure. Case size is 1.25” x 0.80”<br />

x 0.4”H. All models are fully encapsulated<br />

for improved thermal performance.<br />

The operating temperature range of<br />

the EW is -40° to +90°C. The switching<br />

frequency of all models is 400 kHz with<br />

efficiencies as high as 87%. Output noise<br />

is as low as 50 mV peak to peak. Output<br />

voltage accuracy is +/-0.6%. Line and load<br />

regulation is +/-0.3% and +/-0.5% respectively.<br />

Temperature coefficient is +/-<br />

3% and all models are protected through<br />

continuous short circuit protection.<br />

<strong>Inrush</strong> <strong>Current</strong> Issues<br />

Another issue that affects reliability<br />

is the control of incoming current. Addressing<br />

that need, VPT has expanded<br />

its product line with a new power protection<br />

module, the DVCL <strong>Inrush</strong> <strong>Current</strong><br />

Limiter. The DVCL controls potentially<br />

damaging inrush current drawn by DC/<br />

DC converters, EMI filters and discrete<br />

capacitors during startup. With a power<br />

Special Feature<br />

By using Lithium-ion chemistry, UPSs can provide less weight, longer runtimes and higher<br />

energy density than lead-acid solutions. Falcon Electric has added Lithium-ion batteries as<br />

an option to its 1500 VA model of the SSG Series Industrial Grade UPS Plus.<br />

capacity of 200W, users can protect multiple<br />

downstream VPT DC/DC converters<br />

using a single, lightweight DVCL<br />

module. <strong>Inrush</strong> current is the spike of<br />

current drawn by a power supply when it<br />

is turned on. Large inrush currents might<br />

be governed by a system-level specification.<br />

High spike currents can create electromagnetic<br />

interference in adjacent circuitry,<br />

trip an upstream circuit breaker,<br />

or overwhelm the over-current protection<br />

of a solid state power controller. The<br />

DVCL <strong>Inrush</strong> <strong>Current</strong> Limiter functions<br />

by limiting the rate of rise of its output<br />

voltage. It will also control the inrush<br />

current of discrete input capacitors.<br />

Also in the vein of harsh environment<br />

supplies, railway requirements have<br />

a lot of overlap with the rugged requirements<br />

of military applications. TDK-<br />

Lambda America has expanded its line<br />

of railway DC/DC converters with the<br />

introduction of the new 24V input, 100watt,<br />

CN100A24 Series. These quarter<br />

brick modules operate off a wide range of<br />

DC inputs from 14.4 to 36.0 VDC, which<br />

is widely used in the railway industry, and<br />

for 24-volt vehicles. Available with output<br />

voltages of 5V, 12V, 15V or 24 VDC (adjustable<br />

±10%), these fully regulated and<br />

isolated power modules deliver exceptional<br />

performance.<br />

Designed for very harsh environments,<br />

the CN100A24 Series meets the<br />

stringent shock and vibration requirements<br />

of IEC61373 Category 1, Grade B.<br />

These baseplate-cooled power converters<br />

have standard pin-outs and provide full<br />

output power from -40° to +100°C at the<br />

Surface Mount<br />

(and Plug In)<br />

Transformers and<br />

Inductors<br />

See Pico’s full Catalog immediately<br />

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and tested to MIL-PRF-27. QPL Units available.<br />

<strong>Power</strong> & EMI Inductors<br />

Ideal for Noise, Spike and <strong>Power</strong> Filtering<br />

Applications in <strong>Power</strong> Supplies, DC-DC<br />

<strong>Converter</strong>s and Switching Regulators<br />

Pulse Transformers<br />

10 Nanoseconds to 100 Microseconds.<br />

ET Rating to 150 Volt Microsecond,<br />

Manufactured and tested to MIL-PRF-21038.<br />

Multiplex Data Bus<br />

Pulse Transformers<br />

Plug-In units meet the requirements<br />

of QPL-MIL-PRF 21038/27.<br />

Surface units are electrical equivalents<br />

of QPL-MIL-PRF 21038/27.<br />

DC-DC <strong>Converter</strong><br />

Transformers<br />

Input voltages of 5V, 12V, 24V And 48V.<br />

Standard Output Voltages to 300V (Special<br />

voltages can be supplied). Can be used as self<br />

saturating or linear switching applications. All<br />

units manufactured and tested to MIL-PRF-27.<br />

400Hz/800Hz<br />

<strong>Power</strong> Transformers<br />

0.4 Watts to 150 Watts. Secondary Voltages 5V<br />

to 300V. Units manufactured to MIL-PRF-27<br />

Grade 5, Class S (Class V,<br />

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E Mail: info@picoelectronics.com<br />

www.picoelectronics.com<br />

November 2011 COTS Journal [ 13 ]<br />

Untitled-9 1 7/5/11 12:01:44 PM


Special Feature<br />

baseplate without deratings. The 100-watt<br />

model CN100A24-12, for example, delivers<br />

8.4 amps at 12 VDC with a conversion<br />

efficiency of 88% at full load. These quarter-brick<br />

modules measure 1.45 x 2.28<br />

inches and are only 0.50-inch high.<br />

Meeting SWaP Requirements<br />

Size, weight and power concerns<br />

have become almost equally as impor-<br />

[ 14 ] COTS Journal November 2011<br />

tant as ruggedness in many military applications.<br />

Serving those needs, Martek<br />

<strong>Power</strong> has made significant additions<br />

to its <strong>Power</strong>tron JL Series (Figure 3) of<br />

open-frame DC/DC converters. They<br />

are conduction-cooled units developed<br />

by Martek in response to an increase<br />

in applications where the power supply<br />

is mounted inside a sealed enclosure.<br />

Originally designed for onboard pas-<br />

Untitled-3 1 11/8/11 10:10:43 AM<br />

senger information systems, JL DC/DC<br />

converters are rated up to 50W and offer<br />

full EN50155 compliance as well as the<br />

ability to accept the wide range of typical<br />

railway input voltages. Outputs can be<br />

specified between 5 and 110 VDC, and<br />

the units have a footprint of just 135 x 85<br />

mm including the mounting plate. With<br />

efficiencies approaching 90 percent,<br />

the conduction-cooled versions help to<br />

minimize any temperature rise within<br />

the host equipment. All converters in<br />

the JL Series are designed for continuous<br />

operation at ambient temperatures of up<br />

to 75°C without de-rating.<br />

AC/DC Supplies and UPSs<br />

Closer to the installation side of<br />

military systems, new solutions in AC/<br />

DC and UPS product areas continue to<br />

advance. With its latest AC/DC solution,<br />

RECOM has released a new range of<br />

isolated AC/DC power supply modules<br />

with very low standby input currents,<br />

ideally suited for low-power applications<br />

or standby power supplies. The RAC01<br />

and RAC02 offer 1W or 2W of output<br />

power from a universal input voltage of<br />

90-265 VAC and yet draw only 30 mW<br />

in standby. The RAC03 offers a higher<br />

output power of 3W yet draws only 80<br />

mW when unloaded. Unlike other lowpower<br />

AC/DC modules, the RAC01,<br />

RAC02 and RAC03 offer high-efficiency,<br />

well regulated, short-circuit protected<br />

DC outputs with 3.3, 5, 9, 12, 15 or 24V<br />

voltage options and a line and load regulation<br />

of typically ±2%. The conversion<br />

efficiency is up to 78%, which enables<br />

RECOM to guarantee an operating temperature<br />

range of -25° to +85°C for the<br />

one watt part, reducing to +80°C for the<br />

two and three watt converters.<br />

Moving ahead in the uninterruptible<br />

power supply game, SynQor recently announced<br />

a line of Military-Grade Uninterruptible<br />

<strong>Power</strong> Supply units that are<br />

designed for the extreme environmental<br />

and demanding electrical conditions of<br />

Military/Aerospace applications. Syn-<br />

Qor’s UPS incorporates field-proven high<br />

efficiency designs and rugged packaging<br />

technologies. This UPS will accept a wide<br />

range of input voltage and frequency values<br />

while delivering a well-conditioned


Special Feature<br />

AC output to the load. Its use of Lithium<br />

polymer batteries permits the lowest profile<br />

and lowest weight solution in its power<br />

class. It is designed and manufactured in<br />

SynQor’s USA facilities to comply with<br />

a wide range of military standards. Options<br />

include a DC output and the ability<br />

to also draw power from a military standard<br />

28VDC input.<br />

Long Life Support<br />

Falcon Electric, meanwhile, has<br />

added Lithium-ion batteries as an option<br />

to its 1500 VA model of its SSG Series<br />

Industrial Grade UPS Plus. Lithium-ion<br />

chemistry offers several advantages over<br />

Kontron<br />

Phone: (888) 294-4558<br />

Fax: (858) 677-0898<br />

LiPPERT Embedded Computers, Inc.<br />

Phone: (770) 295-0031<br />

Fax: (678) 417-6273<br />

[ 16 ] COTS Journal November 2011<br />

valve regulated lead-acid (VRLA) batteries<br />

including less weight, longer runtimes<br />

and higher energy density. The SSG Series<br />

is a true double-conversion on-line<br />

sinewave regenerative UPS. This robust<br />

and rugged solution provides military,<br />

aerospace and industrial applications<br />

with a high level of power protection that<br />

tolerates many of the elements found in<br />

these harsh environments. Due to its<br />

rugged design, the U.L. listed SSG Series<br />

is capable of withstanding elevated temperatures<br />

of up to 131°F (55°C). The SSG<br />

Series, which is available in 1500 VA, 2200<br />

VA and 3000 VA configurations, can be<br />

placed in an equipment rack or installed<br />

Multicore Boards Gallery<br />

Featuring the latest in Multicore Boards technology<br />

VM6250 - 6U VME High<br />

Performance <strong>Power</strong>PC<br />

Computer<br />

The VM6250 is built around Freescale’s<br />

state-of-the- art MPC8640/8641<br />

single or dual-core e600 processor and<br />

provides exceptional I/O capabilities<br />

onboard and outstanding fl exibility<br />

by being the fi rst 6U VME board to<br />

provide support for PMC, XMC and<br />

FMC mezzanine cards. The VM6250’s<br />

high performance, 2eSST, VME interface<br />

helps customers preserve their<br />

investment in legacy VME equipment<br />

and provides substantial price and<br />

performance advantages over previous<br />

generations of VME computers.<br />

E-mail: sales@us.kontron.com<br />

Web: www.kontron.com<br />

Toucan-QM57<br />

Intel® Core i7 Processor<br />

8 GB DDR3 ECC RAM<br />

2x DisplayPort, LVDS<br />

Gigabit LAN<br />

8x USB 2.0 (1 slave)<br />

4x SATA, 1 PATA<br />

PCI Express, PCI buses<br />

Intel HD Audio<br />

LEMT condition management<br />

Extended temperature range<br />

-40°C…+85°C<br />

Supports Windows, Linux<br />

E-mail: ussales@lippertembedded.com<br />

Web: www.lippertembedded.com<br />

LiPPERT Embedded Computers, Inc.<br />

Phone: (770) 295-0031<br />

Fax: (678) 417-6273<br />

N.A.T. GmbH<br />

Phone: +49 228 965 864 0<br />

Fax: +49 228 96 58 64 10<br />

as a stand-alone tower in close proximity<br />

to the critical load.<br />

This eliminates the need to shield the<br />

UPS from the environment. Moreover, the<br />

SSG’s 10-year rated VRLA batteries when<br />

operated in a typical environment of 21°<br />

to 23°C, double the average UPS battery<br />

life. When operated in harsher temperature<br />

environments at 50°C, the projected<br />

battery life is four years—quadrupling the<br />

battery operating life over typical UPSs.<br />

The SSG Series is a true regenerative online<br />

UPS that is designed to give users the<br />

highest level of protection against a wide<br />

spectrum of power problems. It provides<br />

a continuous, clean, tightly regulated<br />

Hurricane-QM57<br />

Intel Core i7 Processor<br />

4 GB ECC RAM<br />

4 GB on RSOMM module<br />

2x DisplayPort, LVDS<br />

Sound<br />

2x Gigabit LAN<br />

10x USB<br />

4x SATA<br />

PCI Express, PCI buses<br />

LEMT condition management<br />

Extended temperature range<br />

-40°C…+85°C<br />

ANSI/VITA 47-2005 V3 & OS2<br />

compliant<br />

E-mail: ussales@lippertembedded.com<br />

Web: www.lippertembedded.com<br />

NAMC-QorIQ-P4080-V6<br />

N.A.T.’s single-width AMC board,<br />

NAMC-QorIQ-P40, combines<br />

Freescale’s octal <strong>Power</strong>PC cores (8<br />

x e500mc) with up to 1.5GHz and<br />

Xilinx’s Virtex-6 FPGA. Front panel<br />

interfaces are 1 x10/100/1000-BaseT<br />

Ethernet, 10 GBit (XAUI) SFP+<br />

Ethernet, USB; backplane interfaces<br />

are at the fat pipe: PCIe, SRIO and<br />

XAUI and at the base fabric: 2xGbE,<br />

2xSATA.<br />

E-mail: ina@nateurope.com<br />

Web: www.nateurope.com


Special Feature<br />

power source from the most polluted incoming<br />

AC power source. Unlike off-line<br />

and line-interactive UPS designs, the SSG<br />

Series acts as an electronic firewall between<br />

incoming “dirty” power and sensitive<br />

microprocessor-based Programmable<br />

Logic <strong>Control</strong>lers (PLCs), computers and<br />

automated systems found in these industrial<br />

environments.<br />

[ 18 ] COTS Journal November 2011<br />

Calex<br />

Concord, CA.<br />

(925) 687-4411.<br />

[www.calex.com].<br />

Curtiss-Wright <strong>Control</strong>s Electronic Systems<br />

Santa Clarita, CA.<br />

(661) 257-4430.<br />

[www.cwcelectronicsystems.com].<br />

Untitled-4 1 2/16/11 9:51:50 AM<br />

Extreme Engineering Solutions<br />

Middleton, WI.<br />

(608) 833-1155.<br />

[www.xes-inc.com].<br />

Falcon Electric<br />

Irwindale, CA.<br />

(626) 962-7770.<br />

[www.falconups.com].<br />

Martek <strong>Power</strong><br />

Torrance, CA.<br />

(310) 202-8820.<br />

[www.martekpower.com].<br />

Pico Electronics<br />

Pelham, NY,<br />

(914) 738-1400.<br />

[www.picoelectronics.com].<br />

Rantec <strong>Power</strong> Systems<br />

Los Osos, CA.<br />

(805) 596-6000.<br />

[www.rantec.com].<br />

RECOM <strong>Power</strong><br />

Brooklyn, NY.<br />

(718) 855-9710.<br />

[www.recom-power.com].<br />

TDK-Lambda Americas<br />

San Diego, CA.<br />

(619) 575-4400.<br />

[www.lambdapower.com].<br />

Vicor<br />

Andover, MA.<br />

(978) 749-8359.<br />

[www.vicorpower.com].<br />

VPT<br />

Blacksburg, VA.<br />

(425) 353-3010.<br />

[www.vpt-inc.com].


MIL-STD<br />

is the only thing standard<br />

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Any questions?<br />

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• Discrete component design facilitates rapid utilization of latest technologies<br />

• Intelligent monitoring, control and communication<br />

• Fully integrated EMI Filtering<br />

• Key standards include:<br />

- MIL-STD-810 - MIL-STD-1399<br />

- MIL-STD-461 - MIL-STD-1275<br />

- MIL-STD-704 - MIL-STD-901<br />

• Designed with Component Derating per NAVMAT guidelines<br />

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Special Feature<br />

<strong>Power</strong>ing Board and Box-Level Systems<br />

Advanced Battery <strong>Technology</strong><br />

Shrinks Military Energy Costs<br />

The transition to more advanced military battery technologies provides a variety of<br />

benefits. Not least among these is a reduction in mil vehicle fuel costs.<br />

David McShane, Executive V.P. of Business<br />

Development and Engineering<br />

International Battery<br />

According to a study completed by<br />

the U.S. Army in 2007, one out<br />

of eight U.S. Army casualties in<br />

Iraq was a result of protecting a fuel<br />

convoy-related mission. Keeping forward<br />

operating bases (FOBs) running<br />

takes an immense amount of energy<br />

derived from diesel-fuel generators;<br />

from communications and electronic<br />

systems to environmental systems, everything<br />

needs to be powered 24/7. A<br />

recent Deloitte study on “Energy Security”<br />

has the U.S. military consuming<br />

22 gallons of oil per day per soldier.<br />

With fuel cost estimates running between<br />

$30 and $300 a gallon resulting<br />

in approximately $16 billion in costs<br />

per year, these factors have the military<br />

exploring alternative fuel options more<br />

aggressively than ever. The integration<br />

of green technology is the key to<br />

lowering oil consumption and keeping<br />

troops safe.<br />

The armed forces have already<br />

taken the first steps to lower their carbon<br />

footprints. Installing wind turbines<br />

and solar systems at military bases has<br />

been a common practice for years, and<br />

like with other technologies, the U.S.<br />

[ 20 ] COTS Journal November 2011<br />

√<br />

√<br />

√<br />

√<br />

√<br />

√<br />

√<br />

√<br />

Figure 1<br />

Lithium-Ion Advantages Over Lead-Acid <strong>Technology</strong><br />

military is an innovative front runner<br />

in pushing energy efficient technology<br />

to far reaching places. The goal for a<br />

more fuel efficient military vehicle is<br />

not that far off: biofuels have already<br />

begun to power several test projects including<br />

HMMWVs (military Humvees)<br />

and aircraft. But advanced battery systems<br />

are likewise playing a key role in<br />

reducing the fuel consumption within<br />

military operations.<br />

Dramatic weight reduction, up to 80 percent in high C-Rate applications<br />

Footprint/volume reduction, up to 65 percent in high C-Rate applications<br />

Dramatically longer cycle life<br />

Use 100 percent of capacity of lithium battery without shortening rated cycle<br />

life, vs. 40-60 percent of capacity for lead-acid<br />

No service for the lifetime of the battery<br />

Shorter charge times (1.5-2 hours vs. 5-8 for lead-acid)<br />

Lower effective capacity loss at high rates of discharge<br />

Lower total life cost<br />

Many integrators are turning to advanced chemistries such as Lithium-ion for more energydense<br />

applications, driven by the many advantages they have over lead-acid batteries.<br />

New Advanced Battery<br />

Chemistries<br />

When powering vital communications<br />

systems, diesel generators and<br />

lead-acid batteries have long been the<br />

military’s main power sources. In efforts<br />

to cut down on fuel consumption, there<br />

has been a move to using generators as a<br />

secondary power source and depending<br />

on energy storage as a means to reduce<br />

fuel consumption. And while the low


[ 22 ] COTS Journal November 2011<br />

Untitled-4 1 7/25/11 10:31:05 AM<br />

Special Feature<br />

Figure 2<br />

Large-format Lithium-ion prismatic cells are proving themselves in interesting pilot<br />

programs as they offer up to 70 times the capacity of traditional packaged lithium batteries<br />

that are the size of a D cell.<br />

cost of lead-acid batteries has made them<br />

a popular choice for several years, many<br />

integrators are now turning to advanced<br />

chemistries such as Lithium-ion for more<br />

energy-dense applications. Figure 1 lists<br />

the many advantages Lithium-ion batteries<br />

have over lead-acid batteries.<br />

Finding the Right Fit<br />

Large-format cells, also referred to<br />

as HyperClass Lithium-ion prismatic<br />

cells, (Figure 1) on the market today are<br />

proving themselves in interesting pilot<br />

programs as they offer up to 70 times<br />

the capacity of traditional packaged<br />

lithium batteries that are the size of a D<br />

cell. While most lithium batteries are<br />

produced as small cylindrical cells up to<br />

3 Ah or “pouch” prismatic cells up to 10<br />

Ah, large-format cells can range from 50<br />

Ah to 200 Ah. With each individual cell<br />

being considerably larger, large-format<br />

batteries greatly decrease the number of<br />

cells needed within the battery module,<br />

which improves reliability and efficiency<br />

while lowering maintenance costs and<br />

the number of connectors. Individual cell<br />

monitoring with the use of Battery Management<br />

Systems (BMS) is a key to success<br />

with these systems.<br />

Weight, temperature and energy requirements<br />

are all important factors to<br />

consider when choosing Lithium-ion bat-<br />

teries. Some have very wide temperature<br />

ranges and can be ideal for in-field vehicles<br />

that experience high desert temperatures<br />

and meet longer runtime demands, but<br />

not many have military testing certification,<br />

which is an important requirement.<br />

Lithium iron phosphate chemistry—a<br />

form of Lithium-ion—is by far the safest<br />

and therefore the best choice for power<br />

delivery applications.<br />

Energy Storage: The Silent<br />

Advantage<br />

The Tank Automotive Research,<br />

Development and Engineering Center<br />

(TARDEC), has developed a hybrid energy<br />

storage system suited for tanks and<br />

Stryker armored vehicles. This energy<br />

storage system has been implemented<br />

within the current Silent Watch program,<br />

aimed at allowing military vehicles<br />

to operate with little to no audible<br />

signature. Developing tanks and military<br />

Humvees more suited for covert missions<br />

is a major challenge, and energy storage<br />

plays a huge role in the development of<br />

this program.<br />

The Silent Watch vehicles rely on<br />

the battery system to operate quietly for<br />

stealth and tactical missions (Figure 2).<br />

With the communications systems being<br />

powered by the battery, the audible signature<br />

of these vehicles is greatly reduced


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[ 24 ] COTS Journal November 2011<br />

Untitled-2 1 10/24/11 10:46:40 AM<br />

Special Feature<br />

Figure 3<br />

Silent Watch Humvees use Lithium-ion batteries to power communications systems while<br />

the vehicle is in idle.<br />

without the need to rely on the noisy engine.<br />

Furthermore, the advanced battery<br />

system within Silent Watch vehicles is<br />

thermally managed, providing military<br />

operations with electricity for 10 hours<br />

without the telltale heat signature of a<br />

running engine, thus avoiding infrared<br />

detection.<br />

Between communications systems<br />

and other mission-critical hardware, the<br />

power demands on board vehicles are<br />

constant. Due to the “always on” nature<br />

of this equipment, military vehicles are<br />

faced with high power demands while in<br />

idle and are subject to the reliability of<br />

their power supplies. To power these systems,<br />

many existing vehicles rely on the<br />

use of diesel generators or the vehicle’s<br />

engine. While this setup is effective, it is<br />

by no means fuel efficient, cost-effective,<br />

or even tactically reliable.<br />

Off-loading Engine Battery<br />

To replace the dependence on the<br />

vehicle’s engine, TARDEC is using advanced<br />

battery packs and energy storage<br />

systems to run the mission-critical<br />

equipment while in idle. To meet the desired<br />

runtime and sheer energy density<br />

needed, TARDEC integrated a hybrid<br />

12-volt energy storage system powered<br />

by a Lithium Iron Phosphate battery.<br />

The lead-acid batteries previously used<br />

in the application proved to be heavier<br />

and experienced reliability issues in<br />

harsh environments.<br />

Battery makers learned that forward<br />

operating mission procedures directed<br />

troops to replace lead-acid battery systems<br />

after only one mission, because<br />

reusing a battery without intelligence/<br />

monitoring left questions as to the state<br />

of health of the battery and therefore it<br />

would be safer to use a new battery than<br />

risk any failure on the front line. Newer<br />

battery systems are rechargeable and<br />

contain management systems (via a communications<br />

port) to monitor voltage<br />

and temperature. Another consideration<br />

is that lead-acid batteries can take up to<br />

six hours to recharge, while large-format<br />

Lithium-ion batteries require as few as<br />

two hours to charge.<br />

<strong>Power</strong>ing Forward Base Systems<br />

Another project using rechargeable,<br />

large-format Lithium-ion batteries<br />

to supply energy storage to military vehicles<br />

was recently demonstrated at the<br />

U.S. Marine Corps’ Experimental For-


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[ 26 ] COTS Journal November 2011<br />

Untitled-3 1 10/31/11 1:43:44 PM<br />

Special Feature<br />

ward Operating Base (ExFOB) event. A<br />

Vehicle Integrated <strong>Power</strong> Unit Regulator<br />

(VIPUR) can provide up to 75 percent<br />

fuel consumption reduction for Humvees<br />

and other military vehicles that use<br />

excessive idling as a means of generating<br />

electrical energy. Medium Tactical<br />

Vehicle Replacements (MTVRs) are frequently<br />

used to provide 2.5 kW of peak<br />

power for ground-based systems such<br />

as radios, laptops and blue-force trackers.<br />

The VIPUR system replaces the need<br />

to run off of the vehicle’s engine to supply<br />

the energy and instead relies on advanced<br />

battery systems.<br />

The VIPUR energy storage system<br />

operates automatically (no operator intervention<br />

needed) and independently<br />

of a vehicle’s battery system. The VIPUR<br />

system operates on an auxiliary alternator<br />

and up to four 1.5 kWh or 4.1 kWh largeformat<br />

Lithium Iron Phosphate rechargeable<br />

cells. The unit hooks up to a 430-watt<br />

portable solar power unit for recharging,<br />

resulting in greater fuel efficiency.<br />

Beyond Vehicles<br />

Military vehicles are not the only<br />

“gas guzzlers” in the field. Camps and<br />

military bases are reliant on diesel<br />

generators as well. To combat that dependence,<br />

the U.S. Marines developed<br />

the Ground Renewable Expeditionary<br />

ENergy System (GREENS), a portable<br />

energy storage/generation system that<br />

consists of a networkable and vastly scalable<br />

1600W solar array and rechargeable<br />

large-format batteries. The 24V, 1.5 kWh<br />

energy storage system is integrated into<br />

a ruggedized enclosure allowing for portability<br />

and easy setup.<br />

The small footprint, superior life<br />

cycle and high durability of Lithium-ion<br />

batteries makes them powerful solutions<br />

for off-grid operations. According to the<br />

Office of Naval Research, “GREENS will<br />

reduce the logistics burden for providing<br />

power to remote locations. It will provide<br />

AC and DC power needs to charge<br />

typical communication, targeting and<br />

computing devices. GREENS will reduce<br />

the fuel use otherwise needed for<br />

typical generators, and will lessen the<br />

need for fuel resupply, reducing the associated<br />

threats to vehicle convoys in Af-<br />

ghanistan and Iraq.” Renewable energy<br />

has had a huge impact on making these<br />

forward operating bases and camps far<br />

more energy efficient and less dangerous<br />

to the troops protecting them.<br />

Looking Ahead<br />

Projects like Silent Watch, VIPUR<br />

and GREENS all advance the U.S. military’s<br />

desire to integrate green technologies<br />

into a wide range of operations. The<br />

use of Lithium-ion batteries provides<br />

these pilot programs with high levels of<br />

energy storage while maintaining the<br />

lightweight and rugged design needed<br />

in mission-critical environments. Due<br />

to the more stable chemistry, the batteries<br />

are also safe and can withstand<br />

greater temperatures.<br />

While still in the early stages of integration,<br />

advanced battery technologies<br />

have already made a huge impact on how<br />

military systems consume energy. Lowering<br />

the amount of fuel required to power<br />

communications systems and forward<br />

operating bases will greatly decrease the<br />

military’s consumption and improve<br />

liquid logistics. With more pilot projects<br />

like GREENS on the horizon, and<br />

advancements being made in the Silent<br />

Watch program, energy storage systems<br />

will continue to breed a culture of energy<br />

efficiency within the military while advancing<br />

troop safety.<br />

International Battery<br />

Allentown, PA.<br />

(610) 366-3925.<br />

[www.internationalbattery.com].


Special Feature<br />

<strong>Power</strong>ing Board and Box-Level Systems<br />

<strong>Inrush</strong> <strong>Current</strong> <strong>Control</strong> <strong>Technology</strong><br />

<strong>Boosts</strong> <strong>Power</strong> <strong>Converter</strong><br />

<strong>Reliability</strong><br />

Large peak inrush currents can cause a host of problems in military electronic<br />

systems. Choosing the right power protection solutions can avoid damage to<br />

mission-critical equipment.<br />

Steve Butler, Vice President of Engineering<br />

VPT<br />

Designing power subsystems for platforms<br />

like military vehicles, aircraft<br />

and shipborne gear requires<br />

special care. It’s critical to protect those<br />

multimillion-dollar machines from failing<br />

while ensuring reliable performance<br />

in mission-critical situations. Among the<br />

challenges is dealing with the problem<br />

of inrush current. <strong>Inrush</strong> current is the<br />

current drawn by a power system when<br />

power is applied or it is turned on.<br />

The input EMI filter will include some<br />

capacitance connected across the input<br />

line. The DC/DC converter will have capacitance<br />

internally across its input and<br />

output. A typical power system is shown in<br />

Figure 1. There may be additional capacitance<br />

at the input to the DC/DC converter,<br />

and the load will usually include additional,<br />

possibly distributed, capacitance. Each of<br />

these capacitors requires current to charge<br />

them from their initial or zero state to their<br />

final steady state voltage. This current can<br />

have a high peak magnitude depending<br />

on the input voltage rise time and source<br />

impedance, and is referred to as the inrush<br />

current. Large peak inrush currents are<br />

usually governed by a system-level specification.<br />

There is a concern that high spike<br />

currents can trip an upstream protection<br />

[ 28 ] COTS Journal November 2011<br />

+ -<br />

S1<br />

28 VDC<br />

Figure 1<br />

EMI FILTER DC/DC CONVERTER<br />

circuit or create electromagnetic interference,<br />

upsetting sensitive adjacent circuitry<br />

or interfering with RF signals.<br />

<strong>Inrush</strong> <strong>Current</strong> Waveform<br />

A typical power system inrush current<br />

waveform is shown in Figure 2. It<br />

has two current peaks. The first “inrush<br />

spike” peak current occurs when the input<br />

voltage source is turned on. Thispeak<br />

current flows into the EMI filter capacitors<br />

and any capacitors on the input side<br />

of the DC/DC converter, charging them<br />

to their steady state value. The second<br />

current peak occurs when the DC/DC<br />

converter turns on. This peak current<br />

flows through the power transformer in<br />

the DC/DC converter to the output capacitor<br />

and into any load capacitance,<br />

charging them to their steady state value.<br />

There can be multiple occurrences if there<br />

is more than one DC/DC converter.<br />

T1<br />

C1 C2 C3 C4 C5 LOAD<br />

Typical power system showing relevant capacitances.<br />

The first current peak is often referred<br />

to as the inrush spike. Its peak<br />

value and shape are highly dependent on<br />

the characteristics of the input source,<br />

specifically the voltage rise time or dv/<br />

dt and source impedance. A fast rising<br />

input voltage waveform, such as from a<br />

mechanical switch or relay closure, will<br />

produce a very high and narrow current<br />

peak, limited only by series resistance<br />

and inductance. EMI magnetics are usually<br />

too small in value or quickly saturate<br />

under high peak currents. And the resulting<br />

peak is limited only by the source, line<br />

and parasitic resistances.<br />

Switching power converters typically<br />

have output voltage rise times on the order<br />

of a few milliseconds, solid state power<br />

controllers (SSPC) usually from 50us to<br />

500us, and large capacitor banks cannot be<br />

charged in less than several milliseconds.<br />

These slow rise times will not produce ex-


Special Feature<br />

0<br />

0<br />

Figure 2<br />

cessively high current peaks and may meet<br />

system specifications without additional<br />

protection. While the peak inrush current<br />

must be tested for spec compliance,<br />

the i 2 t of the current waveform should also<br />

be evaluated, as it could trip an upstream<br />

fuse, circuit breaker or SSPC.<br />

Turn-On <strong>Current</strong><br />

The second current peak is also considered<br />

part of the inrush current. This peak<br />

[ 30 ] COTS Journal November 2011<br />

Typical inrush current waveform<br />

inrush spike<br />

Shown here is the waveform of a typical power system’s inrush current. It has two current<br />

peaks. The first “inrush spike” peak current occurs when the input voltage source is turned<br />

on.<br />

Figure 3<br />

large load<br />

capacitance<br />

Typical turn-on current waveform<br />

normal<br />

In this waveform of a typical turn-on current, turn-on current is the same whether the<br />

converter is turned on by applying an input voltage or via an enable/inhibit signal.<br />

occurs when the DC/DC converter turns<br />

on and draws current from the source to<br />

charge its output capacitance and any load<br />

capacitance. Typical turn-on current waveforms<br />

are shown in Figure 3. The turn-on<br />

current is the same whether the converter<br />

is turned on by applying an input voltage<br />

or via an enable/inhibit signal. The turnon<br />

current waveshape and peak value will<br />

be well-controlled as long as the converter<br />

has an output soft start feature. But it could<br />

require a higher peak current when starting<br />

into a large capacitive load.<br />

VPT’s DC/DC converters, for example,<br />

use a proprietary magnetic feedback<br />

scheme with a well-controlled internal<br />

start-up sequence and a precise output<br />

voltage soft start feature. The voltage soft<br />

start feature ensures the output ramps up<br />

in a controlled manner, with controlled dv/<br />

dt. Due to the soft start, the input current<br />

usually does not exceed the steady state input<br />

current of the converter during turnon.<br />

These DC/DC converters also feature<br />

continuous constant output current limit.<br />

They will supply full rated current into any<br />

load; they do not hiccup or shut down and<br />

restart. This allows them to start any load<br />

capacitor, regardless of size. For cases with<br />

very large load capacitance, the DC/DC<br />

converter might enter this constant current<br />

limit mode during turn-on. In this case the<br />

input current would not exceed approximately<br />

1.5 times the steady state input current.<br />

This is not high enough to cause any<br />

interference or trip upstream protection<br />

devices. For VPT’s DC/DC converters, this<br />

second inrush peak will not cause adverse<br />

effects in the system design.<br />

Active <strong>Inrush</strong> Limiting<br />

In some applications there is a requirement<br />

to limit the inrush spike current<br />

into the input capacitors. The only<br />

way to accomplish this is to insert a series<br />

element into the circuit in front of those<br />

capacitors. There are several approaches:<br />

a resistor with a bypass switch, an inductor,<br />

a controlled MOSFET, or a dedicated<br />

inrush current protection module. In a<br />

basic inrush limiting circuit using a series<br />

resistor and a bypass switch, the resistor<br />

will limit the input current until the<br />

input capacitors are charged. The switch<br />

will then close to allow the full current<br />

to flow to the downstream DC/DC converter.<br />

The switch can be a relay or semiconductor<br />

switch, and can be driven from<br />

the 28V input such that it is somewhat automatically<br />

controlled. The resistor also<br />

can be replaced with a positive (PTC) or<br />

negative temperature coefficient (NTC)<br />

thermistor. The NTC thermistor does not<br />

require a bypassing switch S1, but does require<br />

time to cool after power is removed,<br />

before it is functional again.


An inductor could also be used to limit<br />

inrush current. It would not need to be bypassed<br />

since it can carry DC current with<br />

low loss. However, a large inductance value<br />

and size would usually be required, and<br />

care must be taken to damp its resonance<br />

with the system capacitances to avoid transient<br />

ringing, control loop interactions and<br />

instabilities with the DC/DC converter.<br />

Another Configuration<br />

Another practical circuit uses a series<br />

MOSFET placed in the negative power<br />

lead. The MOSFET is normally off, with<br />

its gate pulled low through a resistor.<br />

When input voltage is applied, the gate<br />

will charge through the first resistor. The<br />

charge time and turn-on of MOSFET can<br />

be chosen to allow the input capacitors to<br />

charge slowly, limiting the inrush current.<br />

After the input capacitors are charged,<br />

the gate of the MOSFET will charge to<br />

the zener voltage and it will remain fully<br />

on. During the inrush period, the voltage<br />

across the MOSFET results in a large voltage<br />

difference between the return lead<br />

of the source and the input return of the<br />

DC/DC converter. This voltage will interfere<br />

with primary referenced control<br />

interfaces, requiring additional isolation<br />

for the control signals.<br />

A better solution is to move the series<br />

MOSFET to the positive lead. While this<br />

can be accomplished by using a P-channel<br />

MOSFET, a better approach is shown in Figure<br />

4. The MOSFET is located in the high<br />

side, allowing primary circuits to share a<br />

common return, but an N-channel MOS-<br />

FET is used. The N-channel MOSFET will<br />

have a lower on-resistance, reducing power<br />

loss. A charge pump is required to drive the<br />

gate of the MOSFET above the input voltage.<br />

The MOSFET can also be operated in<br />

the linear region as a source follower to<br />

provide input transient protection.<br />

Input Modules with <strong>Inrush</strong><br />

Limiting<br />

VPT now offers a new approach to<br />

solving the inrush current problem. The<br />

DVCL28 is a dedicated <strong>Inrush</strong> <strong>Current</strong><br />

Limiter Module, packaged in a tiny 1-inch<br />

square hermetic case. It can power multiple<br />

EMI filters and DC/DC converters<br />

up to 11A or 200W over the full military<br />

4<br />

+ -<br />

28 VDC<br />

Figure 4<br />

CHARGE<br />

PUMP<br />

temperature range of -55° to +125°C. The<br />

DVCL28 uses the circuit diagrammed<br />

in Figure 6 to control the output voltage<br />

ramp rate or dv/dt. The voltage waveforms<br />

shown with and without the inrush limiter<br />

are shown in Figure 5 and Figure 6. A<br />

28V step function waveform is applied to<br />

the input. The rising slope of the output<br />

voltage is controlled to 6 V/ms, limiting<br />

the inrush current into a 500 uF capacitor<br />

to less than 3.5A peak.<br />

C1<br />

Q1<br />

ACTIVE INRUSH CIRCUIT<br />

C2<br />

Special Feature<br />

EMI FILTER/<br />

DC/DC CONVERTER<br />

The MOSFET is located in the high side, allowing primary circuits to share a common return,<br />

but an N-channel MOSFET is used. This MOSFET will have a lower on-resistance, reducing<br />

power loss.<br />

Vin: 5V/div<br />

lin: 20 A/div<br />

Figure 5<br />

Vin<br />

lin<br />

timescale: 200µs/div<br />

Shown here is the operation of a typical power system without a DVCL <strong>Inrush</strong> <strong>Current</strong><br />

Limiter.<br />

An off-the-shelf solution such as the<br />

DVCL <strong>Inrush</strong> <strong>Current</strong> Limiter Module<br />

saves engineers the design time required to<br />

create some of the other solutions discussed<br />

in this article. A single DVCL can limit the<br />

inrush current of multiple devices, up to a<br />

maximum of 200W combined. The DVCL<br />

is designed to comply with MIL-STD-461<br />

EMI requirements and will not inject additional<br />

noise onto the input line. It also<br />

provides an output signal to delay the<br />

November 2011 COTS Journal [ 31 ]


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Untitled-2 1 11/4/11 10:18:15 AM<br />

Special Feature<br />

1<br />

Vin<br />

Vin: 5V/div<br />

Vout: 5V/div<br />

lin: 20A/div<br />

Figure 6<br />

Vout<br />

turn-on of downstream electronics until<br />

the inrush cycle is completed. For engineers<br />

designing avionics, military, or other<br />

high-reliability systems, the DVCL module<br />

is plug-and-play, meeting all hi-rel system<br />

specifications including the wide military<br />

temperature range of -55° to +125°C.<br />

VPT offers several additional input<br />

modules that include built-in inrush current<br />

limiting. These modules each use a series<br />

N-channel MOSFET in the positive lead.<br />

The N-channel MOSFET achieves the lowest<br />

ON-state resistance to minimize power<br />

losses. Locating it in the positive lead leaves<br />

the return path unbroken, simplifying system<br />

design. Using modules with built-in inrush<br />

current protection saves the engineer<br />

design time, board space and cost.<br />

Filtering and Transient Voltages<br />

Several modules also provide EMI filtering<br />

and input voltage transient protection.<br />

EMI is specified to MIL-STD-461.<br />

The EMI filter and inrush circuits are optimized<br />

to work together. The inrush circuit<br />

limits any current flowing into the EMI<br />

capacitors, but does not introduce any additional<br />

EMI into the input lines, as is possible<br />

with a discrete circuitry. Transient<br />

lin<br />

protection is specified to MIL-STD-461,<br />

MIL-STD-704, MIL-STD-1275, DEF-<br />

STAN 59-411 and ISO 7637-2 depending<br />

on the module. For transient protection,<br />

the high-side series MOSFET is used for<br />

dual purposes to provide both inrush limiting<br />

and transient protection. The VPT-<br />

PCM-12 is a special case in that it also contains<br />

switching elements, so it may require<br />

additional EMI filtering at its input.<br />

<strong>Inrush</strong> current is the peak current that<br />

flows into the power converter when the input<br />

voltage is applied or at turn-on. Many<br />

system specifications will be met with VPT’s<br />

DC/DC converters and EMI filters alone.<br />

Some applications that place limits on this<br />

inrush current may require additional inrush<br />

protection. This inrush protection can take<br />

several forms, from a passive thermistor, to<br />

discrete active circuitry, to a dedicated active<br />

inrush current limiter module. It is worth the<br />

effort to examine your design to see which<br />

solution meets your system specifications for<br />

the most efficient use of time and cost.<br />

VPT<br />

Blacksburg, VA.<br />

(425) 353-3010.<br />

[www.vpt-inc.com].<br />

timescale: 1ms/div<br />

Shown here is the operation of a typical power system with a DVCL <strong>Inrush</strong> <strong>Current</strong> Limiter.<br />

A controlled voltage waveform is applied to the EMI filter and input capacitors. <strong>Inrush</strong> is<br />

negligible.


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Tech Recon<br />

Managing and Processing the ISR Data Deluge<br />

Mobile Ad Hoc Networking<br />

Revamps Military<br />

Communications<br />

With massive amounts of real-time military ISR data to disseminate, traditional<br />

networking schemes can’t keep up. What’s needed are mobile net technologies that<br />

deliver the reliability and flexibility required on the deployed edge.<br />

Chris O’Rourke, Technical Marketing Manager<br />

Cisco Systems<br />

Stephen B. Johnson, Customer Support Engineer<br />

Extreme Engineering Solutions<br />

Driven by technologies such as data<br />

networking, GPS, real-time video<br />

feeds from UAVs, and satellite in-<br />

Gigabit or 100Mbps<br />

Ethernet Physical connect<br />

2 Mbps<br />

RF Over The Air<br />

Links<br />

telligence, today’s modern military has<br />

access to a plethora of real-time data.<br />

RAR<br />

Neighbor A 2 Mbps<br />

1 Mbps<br />

However, getting this information to the<br />

warfighter at the “edge of the network”<br />

is still problematic. Getting real-time<br />

voice, data and streaming video to the<br />

Neighbor B 1 Mbps<br />

Neighbor C 128Kbps<br />

128 Kbps<br />

B<br />

warfighter at the edge is no easy task.<br />

ies providing Networking solutions now infrastructure might be in Figure 1<br />

C<br />

on into products, place technologies on the battlefield, and companies. though Whether your typically goal is to research A the view latest of a battlefield illustrating a mobile, wireless network capable of communicating<br />

ion Engineer, it or cannot jump to a company's support technical the heavier page, the require- goal of Get Connected is to put you<br />

voice, data and video traffic. The networking infrastructure is located in vehicles equipped<br />

you require for ments whatever of type new, of technology, feature-rich applications.<br />

nd products you are searching for.<br />

with backhaul radios and embedded routers.<br />

Soldiers are mobile and need high-per-<br />

www.cotsjournalonline.com/getconnected<br />

formance, high-bandwidth networks<br />

that move with them to deliver the in- seamless access to timely information to equipment in operations and command<br />

formation they need.<br />

all warfighters and decision makers at centers. But it isn’t practical or even<br />

The U.S. DoD has standardized on every level in the military hierarchy. This possible to create a fixed, wired network<br />

IP networks to achieve the goals set out enables soldiers, ground vehicles, aircraft infrastructure on a battlefield; the only<br />

in the high-level Global Information Grid and command centers to shape collected practical way to provide a network-<br />

(GIG) and Network Operations (formerly<br />

Network End Centric of Article<br />

Warfare) doctrines. The<br />

information into a coherent, accurate<br />

view of the battlefield.<br />

ing infrastructure is to create a mobile<br />

wireless network. Since most soldiers<br />

goal for Network Operations is to provide<br />

are typically in or near some sort of ve-<br />

Mobile Network Building Blocks hicle, an effective way to create a mo-<br />

A portion of a military IP network bile wireless network is to make use of<br />

can be based on fixed wired infrastruc- vehicles such as Humvees, Strykers and<br />

ture, utilizing satellites and networking Bradley Fighting Vehicles to carry the<br />

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Tech Recon<br />

Self-forming<br />

Self-healing<br />

No Infrastructure<br />

Peer-to-peer<br />

Predominantly<br />

wireless<br />

Highly dynamic<br />

Figure 2<br />

infrastructure necessary to build and<br />

maintain these networks on the move<br />

(Figure 1).<br />

Mobile wireless networks are built<br />

using a variety of IP-enabled radios and<br />

specialized embedded network routers.<br />

Network infrastructure radios are called<br />

backhaul radios, which can communicate<br />

with other backhaul radios or with satellites.<br />

Each backhaul radio is connected to<br />

an IP-router to create a network node.<br />

At the “edge of the network” are a<br />

variety of clients. Dismounted soldiers<br />

carry some, such as handheld radios,<br />

man-pack radios, laptops, cameras and<br />

PDAs; multiple clients can connect<br />

wirelessly to the same IP network node.<br />

There are also a variety of clients that<br />

reside inside vehicles. Often an Ethernet<br />

switch is interfaced to the router<br />

in a vehicle, providing a vehicle local<br />

area network (LAN), for clients such as<br />

radios, laptops, battlefield display systems<br />

and mission-control computers.<br />

This enables the same IP-networking<br />

system in a vehicle to support both<br />

internal vehicle and external vehicle<br />

communications simultaneously. For<br />

example, externally mounted cameras<br />

[ 38 ] COTS Journal November 2011<br />

Advantages of Deployed Ad Hoc Networks<br />

Nodes that come within radio range of each other can establish a network<br />

association without any pre-configuration or manual intervention.<br />

Nodes can join or leave rapidly without affecting operation of the remaining<br />

nodes.<br />

In an ad hoc network, mobile nodes form their own network and essentially<br />

become their own infrastructure.<br />

Traditional networks typically support end systems operating in client-server<br />

mode. In an ad hoc network, mobile nodes can communicate and exchange<br />

information without prior arrangement and without reliance on centralized<br />

resources.<br />

Historically, networks have been mostly wired and enhanced or extended<br />

through wireless access. The ad hoc environment is essentially wireless, but<br />

can be extended to support wired resources.<br />

Mobile nodes are in continuous motion, and ad hoc networking topologies<br />

are constantly changing.<br />

Ad hoc networks have several distinguishing characteristics when compared with<br />

conventional networking solutions.<br />

will stream video feeds to the dashboard<br />

utilizing the vehicle LAN, while<br />

in-vehicle and dismounted soldiers<br />

communicate with each other and with<br />

remote C2 installations utilizing the<br />

mobile wireless network.<br />

Unique Challenges of Mobile<br />

Wireless Networks<br />

The Internet was built on a fixed,<br />

static, wired infrastructure. More recently,<br />

there have been great strides in<br />

wireless and mobile connectivity. However,<br />

in the consumer and commercial<br />

world, wireless and mobile users still<br />

rely on a fixed, static, wired infrastructure.<br />

Cellular and Wi-Fi base stations<br />

and wireless routers are tied into the core<br />

networks with routing infrastructure,<br />

known gateways and Quality of Service.<br />

As a wireless or mobile user, you have to<br />

play within the rules; wireless connectivity<br />

works great in highly populated areas<br />

because that is where the infrastructure<br />

investment has been made. But as you<br />

move away from population centers, your<br />

wireless connection will be less likely to<br />

work because of the lack of infrastructure<br />

and radio coverage.<br />

With fixed wired networks, the network<br />

nodes are fixed, and the only components<br />

that move are clients that are not<br />

used to route other traffic, such as cellular<br />

and Wi-Fi-enabled devices. On the battlefield,<br />

not only are the clients mobile,<br />

but so are the basic building blocks of a<br />

mobile wireless network, for example the<br />

radios and specialized embedded routers.<br />

This creates a fluid and ever-changing<br />

network with dynamic nodes and frequent<br />

routing table changes. These are<br />

referred to as mobile ad hoc networks.<br />

Mobile Ad Hoc Networks<br />

A Mobile Ad hoc NETwork (MA-<br />

NET, pronounced mă-nā) provides a<br />

means for delivering the benefits of IP<br />

networking to users operating beyond<br />

the reach of a fixed network. It is a selfconfiguring,<br />

infrastructure-less network<br />

of mobile devices connected by<br />

wireless links. Each device in a MANET<br />

is free to move independently in any direction,<br />

and therefore, will change its<br />

links to other devices frequently. Each<br />

must forward traffic unrelated to its<br />

own use, and therefore participate in<br />

the routing of traffic. The primary challenge<br />

in building a MANET is equipping<br />

each network node to continuously<br />

maintain the information required to<br />

properly route traffic. Such networks<br />

may operate by themselves or may be<br />

connected to a larger network. In ad hoc<br />

networks, mobile nodes associate on an<br />

extemporaneous or ad hoc basis. Ad hoc<br />

networks have numerous distinguishing<br />

characteristics when compared with<br />

conventional networking solutions. Figure<br />

2 lists those characteristics.<br />

Ad hoc networks deliver a compelling<br />

advantage wherever highly mobile<br />

warfighters, unsupported by fixed infrastructure,<br />

need to share IP-based<br />

information. They offer superior information-sharing<br />

at all levels, enabling<br />

improved situational awareness, a clearer<br />

understanding of leader’s intent, and the<br />

ability for remote users to self-synchronize.<br />

The fact that they’re self-forming<br />

and self-healing facilitates deployment<br />

and minimizes the need for manual configuration<br />

and intervention. Meanwhile,<br />

their multi-hop networking nature ex-


tends network coverage and provides<br />

redundant paths for increased resilience.<br />

With ad hoc networks you also have the<br />

ability to operate with or without connectivity<br />

to a centralized network. Such<br />

networks are a key enabler for new applications<br />

such as vehicle-to-vehicle<br />

networking, intelligent transportation<br />

systems, sensor networking, telemetry<br />

monitoring and more.<br />

Specialized Embedded Routers<br />

Are Key<br />

Traditional network infrastructure<br />

routers are designed to work with fixed,<br />

mostly static networks with known neighbors.<br />

When there is a change to the network<br />

infrastructure requiring a change to<br />

the way packets are routed, routing tables<br />

have to be updated and propagated. Network<br />

operators in the fixed networks know<br />

the paths available and can engineer the<br />

routing changes using costing in the rare<br />

cases where neighbors change. There is<br />

typically the luxury of having monitoring<br />

points alarm to a network operations center<br />

(NOC) in the event of such network events.<br />

There can be months of planning for network<br />

or routing changes within known<br />

maintenance windows. A traditional network<br />

router would not cope with dynamic<br />

routing table changes that can occur with<br />

nodes participating in a MANET.<br />

Weather, terrain and mobility make<br />

radio-based communications dynamic;<br />

therefore, routers must be aware of each<br />

radio’s condition in order to make effective<br />

routing decisions with built-in<br />

mechanisms to prevent constant rerouting<br />

and human intervention. Mobile<br />

networks delivering real-time services,<br />

such as video and data, cannot tolerate<br />

prolonged network disruptions as the<br />

network changes due to radio dynamics.<br />

To address this challenge, IP routers are<br />

deployed with technology to minimize<br />

network disruption due to network reconvergence.<br />

These routers support features<br />

such as radio-aware routing, traffic<br />

optimization, firewall/network security<br />

and voice services.<br />

Dynamic Link Exchange Protocol<br />

The Dynamic Link Exchange Protocol<br />

(DLEP) is the latest protocol in<br />

SATCOM Radio<br />

Backhaul Radio<br />

Embedded Router<br />

Wireless Access Point<br />

UAV Link Radio<br />

Wireless Clients<br />

Figure 3<br />

the Radio Aware Routing (RAR) family<br />

of protocols that enable communications<br />

between a router and a radio in<br />

a mobile ad hoc network (Figure 3). It<br />

enables a radio to provide a router with<br />

information about the quality of links<br />

between radios and can report on the<br />

presence or loss of potential routing<br />

neighbors. Key to the concept of RAR<br />

protocols is that a router may connect<br />

to a radio using standard Ethernet, but<br />

the radio can convey information about<br />

the true characteristics of the over-theair<br />

radio links to the router, including<br />

the actual available bandwidth, delay,<br />

or link quality. This functionality is especially<br />

critical with today’s dynamic<br />

radio waveforms, which can vary frequencies<br />

and power based on current<br />

conditions in real time. The resulting<br />

changes in bandwidth or other characteristics<br />

must be communicated to a<br />

router using the radio channels in order<br />

to apply QoS or to communicate metric<br />

information within routing protocols.<br />

Tech Recon<br />

Command<br />

Post<br />

Routers have specialized Radio Aware Routing (RAR) capabilities to allow them to receive<br />

information from IP-enabled radios. By knowing information about each radio link, the<br />

router can very quickly and dynamically route packets to other network nodes across any<br />

available link.<br />

The actual available bandwidth to<br />

any given radio neighbor may in fact<br />

be different from any other neighbor,<br />

and certainly may be different from<br />

the bandwidth of the physical connection<br />

between a radio and a router. The<br />

bandwidth to any specific neighbor can<br />

also change and such changes need to<br />

be taken into account for both IP routing<br />

and Quality of Service. Neighbor<br />

up/down signaling enables routers to<br />

provide faster network convergence by<br />

reacting to link status signals generated<br />

by the radio, rather than waiting for protocol<br />

timers to expire. Routers can factor<br />

link quality metrics reported by radios<br />

into their OSPFv3- or EIGRP-based<br />

route cost calculations. Utilizing bandwidth<br />

metrics, routers can provide flow<br />

control for data to minimize the need to<br />

queue and buffer data in radios, allow<br />

voice to be prioritized over video when<br />

radio links are degraded, and provide<br />

consistent QoS for networks with multiple<br />

radios.<br />

November 2011 COTS Journal [ 39 ]


Tech Recon<br />

Figure 4<br />

The 5940 Embedded Services Router (ESR) is an example of a router with the features<br />

needed to build a mobile, ad hoc network (MANET). It can integrate into deployable ATR<br />

style enclosures with other embedded computing technology to create a rugged mobile<br />

networking infrastructure.<br />

SWaP and Ruggedization<br />

Mobile ad hoc networks for military<br />

applications pose hardware and<br />

platform challenges because many of<br />

today’s networking devices must be<br />

optimized from a Size, Weight and<br />

<strong>Power</strong> (SWaP) perspective and also be<br />

made to work reliably in harsh envi-<br />

[ 40 ] COTS Journal November 2011<br />

ronments. In the peer-to-peer world,<br />

anybody or anything that moves can<br />

potentially be a wireless networking<br />

node. Military ad hoc networking requires<br />

a variety of platforms, ranging<br />

from vehicle-based to hand-carried or<br />

wearable, and all offering equivalent<br />

network services.<br />

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Whether a router and a Gbit Ethernet<br />

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The ability to integrate the router<br />

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Untitled-10 1 11/4/11 10:47:47 AM


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Tech Recon<br />

ibility for future upgrades, and it makes<br />

it much less likely that the user will get<br />

locked into a proprietary design.<br />

Network Solutions for the<br />

Dynamic Environment<br />

While the challenges presented by<br />

tactical networks are unique, COTS<br />

routing technologies are available (Figure<br />

4) to deliver network services optimized<br />

for dynamic environments. These<br />

[ 42 ] COTS Journal November 2011<br />

embedded routers are key to deploying<br />

the rich set of applications and service<br />

that today’s warfighters require. When<br />

these ruggedized, embedded routers are<br />

coupled with today’s high-performance,<br />

IP-enabled radios, they do much more<br />

than just create mobile ad hoc networks.<br />

They help ensure that the networks and<br />

the data are highly secure, critical applications<br />

are prioritized, and bandwidth<br />

is optimized. They deliver vital data to<br />

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Untitled-1 1 2/15/08 9:18:26 AM<br />

dismounted soldiers, such as live streaming<br />

video from UAVs overhead. They<br />

allow commanders to get a total, integrated<br />

view of the battlespace. They have<br />

even allowed the President of the United<br />

States to view Navy SEAL operations in<br />

real time, half a world away in Pakistan.<br />

What the Future Holds<br />

It is easy to predict what will happen<br />

in the future for mobile, ad hoc military<br />

networks simply by looking at what is happening<br />

in the commercial world. There<br />

will be increasing bandwidth demands<br />

from an ever-growing list of rich services<br />

and applications, as has happened as a<br />

result of the explosion of smartphones.<br />

There will be a proliferation of connected<br />

nodes as the technology is integrated into<br />

more clients. This will be driven by the<br />

need to continually reduce the SWaP of<br />

the radios, routers and embedded systems<br />

used to create the communication<br />

systems and tactical networks. We will<br />

see a variety of industry-standard COTS<br />

form factors to support clients and nodes,<br />

ranging from dismount to ground vehicle<br />

to airframe solutions. Likely form factors<br />

will be 3U VPX, XMC, and other emerging<br />

small form factors (SFFs).<br />

The demand for smartphones, laptops<br />

and tablets is driving the tremendous<br />

growth in commercial wireless networks.<br />

These same technologies are helping to<br />

create mobile, wireless, ad hoc networks<br />

for the military. Key to creating these military<br />

networks is router technology taken<br />

from the commercial world and modified<br />

to support the mobility of these networks<br />

and the harsh environment of the battlefield.<br />

Ruggedized, embedded routers with<br />

Radio Aware Routing are helping achieve<br />

the goals set out in the Network Operations<br />

doctrine.<br />

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the vast amount of real-time data being gathered by<br />

cameras and sensors. GE Intelligent Platforms offers<br />

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We have leveraged these same ISR visualization<br />

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Tech Recon<br />

Managing and Processing the ISR Data Deluge<br />

GPGPU <strong>Technology</strong> Eases<br />

Persistent Imaging Processing<br />

Challenges<br />

For the data-intensive processing needs of persistent image processing, GPGPUs<br />

can outperform CPUs at real-time parallel data stream computation.<br />

Anne Mascarin, Solutions Marketing Manager<br />

Mercury Computer Systems<br />

Although used previously in conventional<br />

warfare applications, persistent<br />

imaging is a major new advancement<br />

in the war against terror. Radar,<br />

electro-optical (EO), infrared (IR), signals<br />

intelligence (SIGINT) and hyper-spectral<br />

are among the sensor system modalities<br />

that can be used for this purpose. The ability<br />

to collect, process and compare outputs<br />

from these sensor systems captured from<br />

aboard a moving platform such as an Unmanned<br />

Aerial Vehicle (UAV), or from a<br />

stationary airborne platform such as an<br />

aerostat, can provide the warfighter with<br />

invaluable situational awareness.<br />

Since today’s modern sensors can<br />

gather so much data during long collection<br />

missions, extracting the real-time<br />

actionable information from the data<br />

and storing it for later forensic analysis<br />

is a challenging task (Figure 1). There are<br />

some key technologies worth exploring<br />

for addressing this challenge using highperformance<br />

embedded computing to<br />

process and reduce the data from current<br />

and next-generation sensors.<br />

Persistent Imaging Processing<br />

The derivation of real-time actionable<br />

information from sensor data is a<br />

[ 44 ] COTS Journal November 2011<br />

Figure 1<br />

Today’s modern sensors can gather so much data during long collection missions that<br />

extracting the real-time actionable information from the data, and storing it for later<br />

forensic analysis, is a challenge. A Global Hawk UAV shown here gets all pre-flight checks<br />

accomplished from maintenance technicians before a mission.<br />

compute-intensive, real-time operation<br />

that requires SWaP (Size, Weight and<br />

<strong>Power</strong>)—optimized, ultra-high speed,<br />

real-time processing power. Traditionally<br />

used only in gaming, GPGPUs are<br />

performance powerhouses in terms of<br />

performance and SWaP optimization.<br />

In many instances, GPGPUs can outperform<br />

CPUs. GPGPUs excel at performing<br />

mathematical operations such as image<br />

processing on parallel data streams, because<br />

GPGPUs are actually highly par-


Tech Recon<br />

Figure 2<br />

The Ensemble 6000 series 6U OpenVPX<br />

(VITA 65) GSC6200 GPU processing<br />

module harnesses the tremendous<br />

compute power of graphics processing<br />

units (GPUs) for rugged, highperformance,<br />

embedded signal and<br />

image processing.<br />

allel, multicore mathematical processors<br />

with high-speed, on-off chip data access—perfect<br />

for high-speed mathematical<br />

operand read and write.<br />

In terms of SWaP, GPGPUs minimize<br />

board real estate because of their<br />

[ 46 ] COTS Journal November 2011<br />

Figure 3<br />

This rugged, customizable Data<br />

Storage Unit is optimized for SWaP,<br />

environmental, temperature and<br />

interface requirements. Storage capacity<br />

can be extended up to 96 Terabytes.<br />

high performance per processor (Figure<br />

2). In general, for applications that<br />

require multiple parallel mathematical<br />

operations, GPGPUs will outperform<br />

CPUs, so fewer processors are needed<br />

to perform the same task. GPGPUs also<br />

compare favorably against many CPUs<br />

in terms of Gflops per watt. GPGPUs can<br />

offer more performance per unit of en-<br />

Untitled-5 1 9/7/11 8:22:13 AM<br />

ergy consumed than CPUs. This aspect<br />

is clearly beneficial for power-limited airborne<br />

platforms. At both the component<br />

and system level, all airborne applications<br />

require high-performance components<br />

and systems for reliable operation<br />

under harsh environmental conditions.<br />

However, airborne imaging applications<br />

require additional features from a component<br />

and subsystem level.<br />

Frequent GPGPU Tech Upgrades<br />

As imaging subsystem performance<br />

requirements inevitably increase and<br />

sensor payloads grow, a reliable way to<br />

increase performance will be required.<br />

Fortunately, GPGPU manufacturers such<br />

as NVIDIA and AMD release new and<br />

higher-performing GPGPUs roughly twice<br />

per year. However, a method for rapidly<br />

and seamlessly upgrading components to<br />

the latest GPGPUs (with minimal system<br />

downtime) should be available. One way to<br />

achieve this is to implement GPGPUs via a<br />

Mobile PCI Express Module (MXM), an<br />

industry standard form factor. Both AMD/<br />

ATI and NVIDIA ship their GPGPUs on<br />

these surface-mount boards with defined<br />

connecter specifications. Upgrading a carrier<br />

card with MXMs featuring the latest<br />

GPGPU technology is a much quicker way<br />

to disseminate the latest technology than a<br />

complete re-spin of a GPGPU board containing<br />

soldered-down components.<br />

At the subsystem level, openness and<br />

interoperability not only align with openstandards<br />

initiatives, they make it easy to<br />

incorporate key persistent imaging functionality<br />

such as camera interfaces and<br />

compression technology. The OpenVPX<br />

specification is a defined set of system architectures<br />

describing an open, interoperable<br />

embedded subsystem interface<br />

definition. High data rate switch fabrics,<br />

ability to manage heterogeneous processing,<br />

and high-speed IO are all critical requirements<br />

of high-performance airborne<br />

imaging applications, and are aspects of<br />

the OpenVPX-based subsystems.<br />

Storage Considerations<br />

Producing high-quality imagery on<br />

board a mobile platform poses some interesting<br />

algorithmic and SWaP challenges<br />

because mitigating platform- and sensor-


Tech Recon<br />

induced distortions can degrade image<br />

quality. Also, meeting the simultaneous requirements<br />

for extracting real-time, actionable<br />

data and storing high-fidelity forensic<br />

data is a massive computational challenge.<br />

Single sensor images (such as a warfighter<br />

would request of a particular sensor)<br />

must be stored for analysis. Forensic<br />

analysts can use this imagery to determine<br />

recurring activity of interest and<br />

view adversarial movement patterns.<br />

mission:<br />

[ 48 ] COTS Journal November 2011<br />

Solving these tough challenges for a<br />

successful implementation takes a combination<br />

of specialized products. Advanced image<br />

processing functions that are optimized<br />

for execution on GPGPUs would certainly<br />

save countless hours of algorithm research,<br />

development and testing. Several types of<br />

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optimization algorithms for management<br />

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Untitled-4 1 10/13/11 11:42:54 AM<br />

ther analysis, and geometrical correction<br />

functions to correct for image distortion<br />

due to factors such as camera angle tilt and<br />

curvature of the earth. Additionally, creating<br />

an amalgam-type of image from individually<br />

processed sensor streams requires<br />

stitching or mosaic-ing operations.<br />

Accommodating Scalability<br />

In addition to imaging functions,<br />

additional imaging software features are<br />

beneficial. Scalability is crucial for support<br />

of multiple cameras. Video feed<br />

orientation, coverage area and resolution<br />

must be mutually independent variables.<br />

And a mature and fielded solution is<br />

clearly desired for robustness.<br />

Highly dense storage is the final technology<br />

needed to address the challenge of extracting<br />

actionable information from stored<br />

data. Sensor images need to be stored for both<br />

post-mission analysis and for serving the<br />

warfighter in a digital video recorder-type capability<br />

(Figure 3). Also, imaging techniques<br />

such as histogram analysis on stored data<br />

can be used to determine troop movement<br />

by identifying disturbed versus undisturbed<br />

ground. However, persistent imaging timeframes,<br />

particularly on unmanned flights,<br />

can be weeks or months long—calling for<br />

ultra-dense, scalable rugged storage.<br />

There are many elements of storage<br />

solutions to be considered, including<br />

environmental requirements such as vibration<br />

tolerance; data interface choices<br />

such as SATA, 10GbE, and Fibre Channel;<br />

degree of redundancy; availability<br />

of upgrade path; and security needs. But<br />

perhaps the most crucial, least negotiable<br />

factor is storage density; lack of sufficient<br />

storage density could hamper access to<br />

actionable information.<br />

Although key technology and components<br />

for extracting actionable data from<br />

overwhelming streams of sensor data are<br />

highlighted here, additional hardware<br />

components, software, system interconnect<br />

and management, plus integration<br />

time and expertise are required to create<br />

a total persistent imaging subsystem.<br />

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System Development<br />

JTRS and WIN-T Programs Update<br />

JTRS and WIN-T Technologies<br />

Take to the Field<br />

Jeff Child<br />

Editor-in-Chief<br />

Each with years of step by step, multifaceted development behind it, the JTRS and<br />

WIN-T programs are facing the challenges of field testing and deployment.<br />

loration<br />

our goal<br />

directly<br />

ge, the<br />

ource.<br />

ology,<br />

Advances in the software defined<br />

radio market continue to overlap<br />

nicely with the DoD’s software radio<br />

efforts. For the DoD’s Joint Tactical<br />

products Radio System (JTRS) program, many<br />

of the technology pieces are coming together<br />

with its organizational problems<br />

now in the past. Meanwhile, WIN-T—the<br />

Army’s on-the-move, high-speed, highcapability<br />

backbone communications<br />

network— is moving forward to become<br />

ies providing the solutions network now for reliable, secure and seam-<br />

on into products, less video, technologies data, and imagery companies. and Whether voice your services goal is to research the latest<br />

tion Engineer, for or the jump warfighters. to a company's With technical that page, in the mind, goal of the Get Connected is to put you<br />

you require defense for whatever industry type of technology, is entering into a new<br />

and products you are searching for.<br />

phase where huge R&D efforts are being<br />

www.cotsjournalonline.com/getconnected<br />

concentrated on defense communications,<br />

as an increasing number of defense estab- Figure 1<br />

lishments realize the need for empowering<br />

their defense forces with the latest communications<br />

technologies available.<br />

A soldier uses a JTRS radio inside his vehicle to exchange information with upper command<br />

headquarters. The radio can emulate current force radios and use Internet Protocol<br />

The long road to sophisticated soft- waveforms WNW and SRW.<br />

ware defined radios is finally getting real<br />

as End the JTRS of program Article moves into deploy- airborne, vehicular, maritime and small ity and reusability. FY 2012 plans for JTRS<br />

ment phase. JTRS encompasses ground, form factor variants of the radio hardware; include funding the design, development and<br />

17 Increment 1 waveforms for porting into manufacture of JTRS engineering develop-<br />

the JTRS hardware; and network management models (EDMs), and low rate initial<br />

Get Connected<br />

with companies mentioned in this article.<br />

www.cotsjournalonline.com/getconnected<br />

ment applications. All JTRS products are<br />

being developed in a joint environment, enhancing<br />

hardware and software commonal-<br />

production (LRIP), to include hardware<br />

and software, as well as sustainment of<br />

fielded radios and certified waveforms.<br />

[ 50 ] COTS Journal November 2011


Much JTRS Activity<br />

Just the last couple months have seen<br />

some significant steps forward with JTRS.<br />

Last month the Joint Program Executive<br />

Office for the Joint Tactical Radio System<br />

(JPEO JTRS) announced the completion<br />

of another round of Network Integration<br />

Evaluation (NIE) 12.1 New Equipment<br />

Training (NET) for members of the 2nd<br />

Brigade, 1st Armored Division at Ft Bliss,<br />

TX.<br />

The training centered on JTRS<br />

equipment and systems that will be a part<br />

of the Army’s upcoming NIE 12.1 to include:<br />

Handheld, Manpack, Small Form<br />

Fit (HMS) Rifleman Radio and Manpack<br />

Radio, Ground Mobile Radio (GMR),<br />

and JTRS Enterprise Network Manager<br />

(JENM) and Soldier Radio Waveform<br />

Network Manager (SRWNM) (Figure 1).<br />

Taking place over the first couple<br />

weeks in November, NIE 12.1’s purpose<br />

is to assess network and non-network<br />

capabilities. Priorities of NIE 12.1 are to<br />

extend the network to the individual Soldier,<br />

advance mission command on the<br />

move, and continue to establish an Integration<br />

Network Baseline.<br />

MIDS JTRS Contracts<br />

On the contracts side, ViaSat was<br />

awarded engineering development orders<br />

valued at over $15 million for Multifunctional<br />

Information Distribution System<br />

Joint Tactical Radio System (MIDS JTRS)<br />

terminals for the U.S. government. The<br />

awards resulted from a cooperative procurement<br />

through the Space and Naval<br />

Warfare Systems Command (SPAWAR).<br />

The orders were awarded under the MIDS<br />

Indefinite Delivery/Indefinite Quantity<br />

contract initially executed in March 2010.<br />

The awards provide the first block cycle<br />

(BC1) information assurance modernization<br />

upgrades and additional enhancements<br />

for MIDS JTRS terminals.<br />

MIDS JTRS (Figure 2) is a joint development<br />

of ViaSat and Data Link Solutions<br />

and provides a migration path from the<br />

MIDS-LVT to a certified, reprogrammable,<br />

software-defined radio architecture<br />

Figure 2<br />

for tactical data links. The MIDS JTRS<br />

adds three programmable channels to the<br />

legacy Link-16 and TACAN capabilities of<br />

the MIDS-LVT. The three new channels<br />

are designed to host future advanced airborne<br />

networking waveforms. MIDS JTRS<br />

is “plug-and-play” backward compatible<br />

with MIDS-LVT so it can easily replace the<br />

MIDS-LVT, but remain interoperable.<br />

Since their original introduction in<br />

2000, MIDS-LVTs have provided secure,<br />

high-capacity, jam resistant, digital data<br />

and voice communications capabilities for<br />

a variety of platforms, including ships, aircraft,<br />

missile defense systems, and national<br />

and international command and control<br />

agencies. Over 8,100 MIDS-LVTs are on<br />

contract or have been delivered worldwide,<br />

with thousands of future installations and<br />

applications projected through 2021.<br />

JTRS SRW Field Tests<br />

Another significant milestone for<br />

JTRS occurred in September when the<br />

JTRS Reference Implementation Laboratory<br />

(JRIL) conducted a Soldier Radio<br />

Waveform (SRW) Interoperability Quicklook<br />

(SIQ) Field Exercise at SPAWAR Sys-<br />

System Development<br />

The MIDS JTRS system adds three programmable channels to the legacy Link-16 and<br />

TACAN capabilities of the MIDS-LVT. Those channels are designed to host future advanced<br />

airborne networking waveforms.<br />

tem Center (SSC) Pacific Topside and Seaside<br />

facilities in San Diego. With assistance<br />

from the JPEO JTRS Technical Director,<br />

participating JTRS Program Offices and<br />

several commercial vendors, JRIL test<br />

engineers from SSC-Atlantic and SSC-<br />

Pacific successfully configured, executed<br />

and monitored lab and field tests using<br />

the latest version of SRW, SRW Network<br />

Manager (SRWNM) and JTRS Enterprise<br />

Network Manager (JENM).<br />

The JTRS government test engineers<br />

successfully demonstrated the formation<br />

of a heterogeneous SRW Island comprised<br />

of six unique types of SRW-capable radio<br />

platforms including two radios developed<br />

under government contract by the JTRS<br />

Program: Ground Mobile Radio (GMR)<br />

and Handheld, Manpack, Small Form Fit<br />

(HMS) Rifleman Radio. Leveraging the<br />

JTRS Enterprise Business Model (EBM),<br />

the commercial vendors obtained the<br />

SRW waveform from the JTRS Information<br />

Repository and integrated the waveform<br />

into their radio products using internal<br />

funding. Commercial radios that<br />

participated in the interoperability event<br />

include ITT Soldier Radio-Rifleman, ITT<br />

November 2011 COTS Journal [ 51 ]


System Development<br />

Figure 3<br />

The Sidewinder Vehicle Mount unit equips vehicles that do not have communications<br />

capability with tactical radios operating in the SRW network. Used in conjunction with the<br />

networking AN/PRC-154 Rifleman radio, the Sidewinder quickly transitions the radio from<br />

a body-worn radio.<br />

Side Hat Radio, Harris AN/PRC-117G,<br />

and the Northrop Grumman Freedom<br />

radio.<br />

Putting JTRS through its Paces<br />

According to the JTRS JPEO, the objective<br />

of the field exercise was to evaluate<br />

the effectiveness of recent SRW patches<br />

and parameter updates on platform interoperability<br />

and performance in a field<br />

environment. Both static and mobile configurations<br />

were examined. Each vendor<br />

provided multiple radios, which permitted<br />

the formation of networks containing<br />

up to 14 nodes. Initial test results indicate<br />

that all participating radios were able to<br />

form a network and exchange Internet<br />

Protocol (IP) data and Combat Network<br />

Radio (CNR) voice in an interoperable<br />

manner.<br />

This SIQ test provided initial validation<br />

of SRW’s ability to interoperate<br />

across multiple radio platforms. The SR-<br />

WNM also successfully monitored the<br />

configured network throughout the testing,<br />

enabling critical insight to the health<br />

and status of the heterogeneous SRW<br />

network. The success of these tests have<br />

been touted by officials as a win for the<br />

JTRS business model. That model was a<br />

paradigm shift for defense communications<br />

in its move away from sole source,<br />

[ 52 ] COTS Journal November 2011<br />

stove-piped, point-to-point proprietary<br />

systems to a highly competitive, interoperable,<br />

networking environment.<br />

Successful completion of the SIQ<br />

event lays the groundwork for the upcoming<br />

Army’s Network Integration Exercise<br />

(NIE) 12.1 as mentioned earlier. Four of<br />

the six JTRS radios tested as interoperable<br />

over-the-air using SRW during this<br />

event will also be participating in that exercise.<br />

Priorities of NIE 12.1 are to extend<br />

the network to the individual Soldier,<br />

advance mission command on the move<br />

and continue to establish an Integration<br />

Network Baseline. JPEO JTRS plans<br />

to continue partnering with Army and<br />

commercial developers to conduct JTRS<br />

waveform interoperability testing in support<br />

of future NIE events.<br />

Vehicle Mount Solution<br />

Facilitating the vehicle side of SRW<br />

JTRS, General Dynamics C4 Systems has<br />

built a piece of gear called the Sidewinder<br />

Vehicle Mount (Figure 3). The unit<br />

equips vehicles that do not have communications<br />

capability with tactical radios<br />

operating in the Soldier Radio Waveform<br />

(SRW) network. An accessory for the networking<br />

AN/PRC-154 Rifleman radio,<br />

the Sidewinder quickly transitions the<br />

radio from a body-worn radio to a vehi-<br />

cle-mounted radio, augmenting its power<br />

and extending its range. Just as quickly,<br />

the Rifleman radio can be removed from<br />

the Sidewinder while maintaining connectivity<br />

with the tactical network.<br />

The Sidewinder’s hardware assembly<br />

includes the 20W power amplifier from<br />

another JTRS HMS radio, the AN/PRC-<br />

155, and connectors that work with the<br />

vehicle’s existing intercom systems and<br />

are compatible with standard mounting<br />

trays that most vehicles already have in<br />

place. The Sidewinder/Rifleman radio<br />

combination has been selected by the<br />

Army for evaluation at the upcoming NIE<br />

12.1 event.<br />

WNW Software Support<br />

Another critical JTRS waveform,<br />

Wideband Networking Waveform<br />

(WNW) has undergone significant developments.<br />

WNW does the heavy lifting<br />

needed to quickly and efficiently move<br />

large amounts of data from the core of<br />

the network to the tactical edge. Last<br />

month General Dynamics C4 Systems<br />

was awarded the Wideband Networking<br />

Waveform Software In-Service Support<br />

contract by the U.S. Navy’s Space and<br />

Naval Warfare Systems Center, to support,<br />

maintain and add new capabilities<br />

to the Wideband Networking Waveform<br />

(WNW). WNW provides the bandwidth<br />

capacity needed to move large amounts<br />

of data through the U.S. military’s tactical<br />

network. The five-year, indefinite delivery,<br />

indefinite quantity contract has a<br />

maximum potential value of $64.5 million<br />

if all options are exercised. Software<br />

support and maintenance will increase<br />

reliability and improve performance of<br />

WNW software thus increasing capabilities<br />

within the tactical network. Planned<br />

WNW enhancements include increased<br />

scalability and throughput adding capability<br />

for commanders while on the<br />

move.<br />

WIN-T Rolls Forward<br />

A step up in scope from JTRS is another<br />

key military networking program:<br />

the Warfighter Information Network –<br />

Tactical (WIN-T). WIN-T is the Army’s<br />

on-the-move, high-speed, high-capability<br />

backbone communications network, linking<br />

warfighters in the battlefield with the


Figure 4<br />

Global Information Grid (GIG). This network<br />

is intended to provide C4ISR support<br />

capabilities. The system is being developed<br />

as a network for reliable, secure and seamless<br />

video, data, imagery and voice services<br />

for the warfighters in the theater to enable<br />

decisive combat actions.<br />

The WIN-T program consists of four<br />

increments. Last year the Army awarded<br />

General Dynamics C4 Systems a contract<br />

to enable a General Dynamics-led team<br />

to begin Low Rate Initial Production of<br />

the Warfighter Information Network<br />

– Tactical (WIN-T) Increment 2. Increment<br />

2 (Figure 4) equips vehicles with onthe-move<br />

broadband communications<br />

enabling command and control from<br />

anywhere in the battlespace. The fiscal<br />

year 2012 procures and continues to field<br />

WIN-T Inc 1 to the Army, with a Ka satellite<br />

upgrade. WIN-T Inc 2 is currently in<br />

Limited Rate Initial Production (LRIP) in<br />

anticipation of its Initial Operational Test<br />

in FY 2012. WIN-T Inc 3 continues in its<br />

Engineering, Manufacturing and Development<br />

(EMD) phase to deliver the full<br />

networking on the move, including the<br />

airborne tier of the program.<br />

In March the Army awarded delivery<br />

orders to a General Dynamics-Lockheed<br />

System Development<br />

Two Point of Presence vehicles are shown here during the six-week WIN-T Increment 2<br />

Production Qualification Test-Government (PQT-G) event this summer at Aberdeen Proving<br />

Ground, Md.<br />

Martin team to procure Warfighter Information<br />

Network – Tactical (WIN-T)<br />

Increment 2 systems for five additional<br />

brigade combat teams (BCTs). The Army<br />

has now ordered Increment 2 systems for<br />

a total of eight BCTs under a three-year<br />

contract that was awarded in March 2010.<br />

The first WIN-T Increment 2 fielding is<br />

scheduled to take place this month.<br />

General Dynamics C4 Systems<br />

Scottsdale, AZ.<br />

(480) 441-3033.<br />

[www.gdc4s.com].<br />

Lockheed Martin<br />

Bethesda, MD.<br />

(301) 897-6000.<br />

[www.lockheedmartin.com].<br />

ViaSat<br />

Carlsbad, CA.<br />

(760) 476-2200.<br />

[www.viasat.com].<br />

OceanServer Digital<br />

Compass Products:<br />

• Low Cost Family<br />

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November 2011 COTS Journal [ 53 ]<br />

Untitled-9 1 1/12/10 10:03:31 AM


<strong>Technology</strong> Focus<br />

ATCA Blades and Systems<br />

ATCA Blades and Systems Fill<br />

Unique Military Needs<br />

Jeff Child<br />

Editor-in-Chief<br />

Offering the size and features other computing form factors lack, ATCA has carved<br />

out a healthy niche of military system design mindshare. Shipborne and UAV<br />

control station systems are among the adopters.<br />

ATCA in recent years has carved out a solid niche in military<br />

applications suited to its features. Where ATCA shines is<br />

in a military system where compute density and raw performance<br />

are top priorities. Traditionally, military and aerospace<br />

standards-based applications were limited to mission<br />

computing and built with rugged VME or CompactPCI. The<br />

form factors are still enjoying huge military market share, but<br />

they have limits when applied to network-centric military applications.<br />

Their configurations are suited for managing heavy<br />

I/O, but their form factors limit networking and processing<br />

capability.<br />

Last month, PICMG, the standard body that created ATCA,<br />

announced the adoption and availability of a new specification<br />

for ATCA: PICMG 3.8 AdvancedTCA Rear Transition Module<br />

Zone 3A specification. The new spec adds a defined set of connectors<br />

for data and management for full size AdvancedTCA<br />

Rear Transition Modules (RTMs). The specification defines a<br />

power and system management connector, and addresses power<br />

and cooling issues specific to AdvancedTCA RTMs.<br />

The high-performance and bandwidth capabilities of ATCA<br />

bring the latest technologies to standards-based applications,<br />

such as command and control, aerospace surveillance, land mobile<br />

communications and maritime networks, which must collect<br />

and manage large amounts of data in real time. ATCA is<br />

the perfect fit for those requirements, because ATCA was specifically<br />

designed to address high-density network communications<br />

applications and delivers up to eight times the performance of<br />

VPX and 40 times the performance of VME or cPCI. In addition,<br />

ATCA is a broadly adopted standard that has proven its<br />

interoperability through five years of deployment in the communication<br />

segment. Among the major programs that have considered<br />

ATCA is the U.S. Navy’s Consolidated Afloat Networks<br />

and Enterprise Services (CANES).<br />

Open standards-based high-availability (HA) middleware<br />

on ATCA platforms provides further fault tolerance on an ap-<br />

[ 54 ] COTS Journal November 2011<br />

Figure 1<br />

ATCA platforms provide fault tolerance on an application level<br />

enabling continued operations of critical missions even with some<br />

hardware and software failures. This is one reason ATCA has<br />

gained entry into applications like UAV Ground <strong>Control</strong> Stations.<br />

plication level that allows continued operations of critical missions<br />

even with some hardware and software failures. This is<br />

one reason ATCA has gained entry into applications like UAV<br />

Ground <strong>Control</strong> Stations (Figure 1). With ATCA it is easy to integrate<br />

new networks with legacy systems. Video and audio are<br />

critical elements of these applications, which combine to create<br />

tremendous bandwidth requirements. <strong>Current</strong> ATCA technologies<br />

can fully support 10 Gbit of traffic on the system backplane to<br />

process voice and video traffic, while future ATCA solutions will<br />

handle 40 Gbit of traffic for video applications such as HD video.<br />

ATCA supports AMCs to provide legacy connectivity with communication<br />

equipment that performs functionalities like SIGINT<br />

and COMINT. A new system can come online using ATCA while<br />

maintaining interconnectivity with older systems.


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<strong>Technology</strong> Focus:<br />

ATCA Blades and Systems Roundup<br />

ATCA Base Switch Blade Provides<br />

24 Gbit Ethernet Ports<br />

ATCA has carved out a respectable niche in<br />

the military where high-density computing<br />

and net-centric communications are a priority. A<br />

24-port GbE AdvancedTCA (ATCA) Multilayer<br />

Base Switch Blade is based on the Broadcom<br />

BCM56312 switch chip. It supports up to thirteen<br />

GbE ports for a 14-slot PICMG 3.0 ATCA system,<br />

with six egress GbE ports and two 10GbE SFP+<br />

uplink ports via front panel access. The aTCA-<br />

3150 from Adlink <strong>Technology</strong> incorporates<br />

Broadcom’s Fastpath networking software and<br />

is designed for ATCA adopters (NEPs & TEMs)<br />

who require AMC modularity, Gigabit layer 3<br />

switching, a scalable control-plane engine and<br />

high-availability Base Interface.<br />

The aTCA-3150 provides a COM Express Type<br />

2 site for expansion with a processing subsystem,<br />

allowing users to tailor processing power to<br />

application demands. In addition, two mid-sized<br />

AMC bays for I/O expansion are supported to suit<br />

the needs of different applications. The aTCA-<br />

3150 provides 10/100/1000Base-TX GbE and<br />

layer 3 switching on Base Interface with support<br />

for 14-slot shelves. It offers six front panel RJ-45<br />

egress Gigabit Ethernet copper ports plus two 10<br />

Gigabit Ethernet SFP+ optical uplink ports in<br />

connection with the Base Interface domain. The<br />

aTCA-3150’s switch blade design incorporates a<br />

powerful Freescale MPC8313E <strong>Power</strong>QUICC II<br />

Pro 333 MHz processor for local management<br />

functions. This processor is used for managing<br />

the BCM56312 GbE switch and for hosting the<br />

Fastpath networking software switching and<br />

management modules. Pricing starts at $3,815.<br />

ADLINK <strong>Technology</strong><br />

San Jose, CA<br />

(408) 495-5557.<br />

[www.adlinktech.com].<br />

[ 56 ] COTS Journal November 2011<br />

Xeon-Based ATCA Blade Offers<br />

8-Core/16-Thread Performance<br />

The multicore trend is now entrenched in the<br />

realm of embedded processing. Exemplifying<br />

that trend, Advantech’s first Intel Xeon<br />

5500-based AdvancedTCA design was followed<br />

by a dual processor ATCA blade version, the<br />

MIC-5322. The underlying architecture and<br />

software drivers remain identical to the MIC-<br />

5320 single processor model making software<br />

fully reusable. Customers can freely choose<br />

the module that matches their application<br />

performance needs and chassis cooling<br />

capabilities.<br />

In addition to supporting hot-swappable<br />

rear transition modules (RTM) for explicit<br />

carrier grade or HA applications that require<br />

it, the MIC-5322 blade adheres to Advantech’s<br />

Common RTM definition developed to<br />

maximize interoperability and reuse between<br />

RTMs and ATCA blades. These guidelines<br />

clearly define the management interface and<br />

RTM port mapping for interconnects such<br />

as USB, PCIe, XAUI and SAS. In this way,<br />

customized RTMs can be reused among<br />

different blades and generation of blades.<br />

The MIC-5322’s improved DDR3 memory<br />

latency, faster PCI Express 2.0, and accelerated<br />

virtualization technologies provide impressive<br />

processing capacity. The design enhancements<br />

in Intel’s new 82599 10 GbE controller also play<br />

a key role in end-to-end network performance<br />

and throughput. Compared to the previous<br />

generation Intel 82598, the Intel 82599 is<br />

packed with new and improved features<br />

contributing up to a 2.5 times improvement<br />

in LAN throughput. Corresponding hardware<br />

optimizations in the Intel 82599 include a new<br />

PCI Express 2.0 interface (5 Gbit/s) to improve<br />

the entire data path as well as intelligent queue<br />

support (VMDq) optimized for multicore<br />

processors.<br />

Advantech<br />

Irvine, CA.<br />

(949) 789-7178.<br />

[www.advantech.com].<br />

ATCA SBC Boasts Dual Six-Core<br />

Intel Xeon 5600 CPUs<br />

There’s a great deal of overlap between the<br />

performance and reliably of telecom and the<br />

communications needs of military networks.<br />

Feeding such needs, Continuous Computing’s<br />

FlexCompute ATCA-XE80 is a dual socket<br />

single board compute blade supporting 12 cores<br />

/ 24 threads via two high-performance Intel<br />

Xeon 5600 series “Westmere” processors. The<br />

XE80 provides support for four hard drives,<br />

64 Gbyte memory and an optional RTM with<br />

additional network interface options.<br />

The XE80 dual Intel Xeon Westmere ATCA<br />

compute blade was designed with performance<br />

in mind, supporting the option of either the<br />

Intel Xeon L5638 or the higher-performing<br />

Intel Xeon E5645 processor. The XE80 dual<br />

Intel Xeon Westmere ATCA compute blade<br />

can address low entry points via a single CPU<br />

option and scale to two processors without the<br />

need for full re-qualification.<br />

Featuring over 1 Terabyte of storage,<br />

the XE80 dual Intel Xeon Westmere ATCA<br />

compute blade has two low-cost solid state<br />

disks on the main blade, up to 32 Gbytes of<br />

cost-effective USB Flash and an additional two<br />

drives on the RTM with RAID support. The<br />

RTM also supports a high-performance 4-port<br />

external SAS connector. The XE80 dual Intel<br />

Xeon Westmere ATCA compute blade features<br />

two mezzanine sites for the addition of offload<br />

engines and a dual 10G fabric NIC supporting<br />

iSCSI, TCP offload, VLAN tagging and<br />

congestion control. Since the blade has been<br />

validated with leading hypervisors, it is an ideal<br />

platform because support for extended VT-x<br />

and VT-d decreases the overhead associated<br />

with virtualization.<br />

Continuous Computing<br />

San Diego, CA.<br />

(858) 882-8800.<br />

[www.ccpu.com].


AdvancedTCA Processor Blade<br />

Serves Up Intel Westmere-Based<br />

CPU<br />

Diversified <strong>Technology</strong> offers an ATCA<br />

solution that includes multiple processor<br />

blades, switches, systems and full integration<br />

capabilities. The ATC7000 is a dual socket node<br />

blade supporting 12 cores (24 simultaneous<br />

threads with HyperThreading enabled) of<br />

processing performance by way of dual Intel<br />

Xeon 5600 series “Westmere” processors. The<br />

ATC7000 provides support for up to 64 Gbyte<br />

memory and an optional RTM with additional<br />

network interface options. The board is a<br />

PICMG 3.0-compliant processor board that<br />

provides high performance for LTE/4G and<br />

other next-generation wireless and wireline<br />

military systems.<br />

The ATC7000 boasts both a base fabric of 1<br />

Gbit Ethernet and an extended 10 Gbit Ethernet<br />

fabric. The dual Intel Xeons are L5638, 2.0<br />

GHz Hex Cores or dual Intel Xeon E5645, 2.4<br />

GHz Hex Cores. The Intel 5520 (Tylersburg)<br />

chipset supports a QPI CPU bus and up to up<br />

to 64 Gbytes of registered DDR3 DRAM. There<br />

are two onboard solid state storage disks. I/O<br />

includes front panel I/O, two 1 Gbit Ethernet<br />

ports, a USB 2.0 port, serial and management<br />

LAN. The rear transition module has two SAS/<br />

SATA ports, two 1 Gbit Ethernet ports, a USB<br />

2.0 port and serial and management LAN.<br />

The RTM supports TM7000 and<br />

TM7000HD. The board is compatible with the<br />

ATS1936 10G ATCA Switch and the ATS1160<br />

1G ATCA Switch. The board is compatible<br />

with Targa-14 Series 14 Slot ATCA Systems,<br />

Targa-6 Series 6 Slot ATCA Systems and MRS-<br />

6 - Mobile Rugged ATCA Systems. The board<br />

supports PICMG specification PICMG 3.1<br />

Option 9.<br />

Diversified <strong>Technology</strong><br />

Ridgeland, MS.<br />

(800) 443-2667.<br />

[www.dtims.com].<br />

ATCA Platform Is Ready for Tough<br />

Field Deployment<br />

A high-performance, multiprocessing system<br />

platform is designed to address computeintensive<br />

requirements in command and<br />

control data center applications. The ATCA7365<br />

SystemPak from Elma Electronic combines<br />

the high-performance multiprocessing of an<br />

integrated ATCA platform with a ruggedized<br />

design capable of withstanding the high shock<br />

and vibration found in rugged mobile transport<br />

applications. It has been successfully tested to<br />

withstand a 36” drop shock test per MIL-STD-<br />

810G.<br />

Featuring three ATCA processor blades,<br />

each with two six-core Intel processors as<br />

standard, the ATCA7365 SystemPak offers<br />

high processing power that makes it an<br />

ideal solution for use in rugged “comms<br />

on the move” (COTM) applications such<br />

as data center virtualization and networkcentric<br />

environments. The new ATCA7365<br />

platform has been successfully tested to meet<br />

environmental requirements for operation in a<br />

command and control center. It is mounted in<br />

a lightweight transit case, can withstand a 36”<br />

drop test on two axes, and can endure random<br />

vibration up to 25 Gs per MIL-STD-810G.<br />

Operating temperature is 3° to 37°C in 5% to<br />

95% non-condensing humidity. In addition<br />

to the three processor blades, the standard<br />

configuration includes an Elma Type 11A, 6U<br />

six-slot ATCA chassis, a fully replicated mesh<br />

backplane and a single system management<br />

card with a provision for dual management as<br />

well as redundant cooling and power supplies.<br />

Four 300 Gbyte SAS (serial-attached SCSI)<br />

drives and a 10 Gigabit Ethernet fabric switch<br />

blade with RTM (real-time monitoring) are also<br />

part of the ready-to-run unit.<br />

Elma Electronic<br />

Fremont, CA.<br />

(510) 656-3400.<br />

[www.elma.com].<br />

ATCA Blades and Systems Roundup<br />

ATCA Blade Provides Advanced<br />

Packet Processing<br />

The ATCA-9405 from Emerson Network <strong>Power</strong><br />

is a state-of-the-art AdvancedTCA blade for high<br />

touch and high throughput packet processing<br />

applications to support the latest data-intensive<br />

network evolution. Packet processing is used widely<br />

in network security applications such as unified<br />

threat management and session border controllers;<br />

in the latest 4G LTE mobile networks for lawful<br />

interception and packet gateways; and in deep packet<br />

inspection applications for policy enforcement and<br />

quality of service control.<br />

With a 40 Gbit/s ATCA fabric, up to 82 Gbit/s<br />

direct Ethernet terminations, a sophisticated<br />

onboard managed Ethernet switching infrastructure<br />

to support traffic flow the ATCA-9405 represents<br />

a balanced 3x to 4x performance and throughput<br />

increase over previous generations. The card sports<br />

MIPS64 cores, and acceleration engines provided<br />

by two Cavium OCTEON II CN6880 multicore<br />

processors. The dual-core service processor is<br />

used to offload other blade functions in order to<br />

maximize the packet processing capability, including<br />

managing Layer 2 and 3 switching/routing functions<br />

on the local Ethernet switch.<br />

Software support includes Wind River’s PNE 4.x<br />

operating system, Cavium’s packet processing SDK,<br />

and 6WIND’s 6WINDGate fast path networking<br />

stacks. The ATCA-9405 can operate with or without<br />

rear transition modules (RTMs) depending on<br />

system architecture, and is designed to support<br />

NEBS/ETSI requirements when used in conjunction<br />

with any of Emerson’s CPTA-B.4 grade enclosures.<br />

To make the most use of the 40 Gbit/s fabric, the<br />

blade should be paired with a 40 Gbit/s hub switch<br />

like the Emerson ATCA-F140.<br />

Emerson Network <strong>Power</strong><br />

Tempe, AZ.<br />

(602) 438-5720.<br />

[www.emersonnetworkpower.com<br />

/embeddedcomputing].<br />

November 2011 COTS Journal [ 57 ]


ATCA Blades and Systems Roundup<br />

ATCA SBC Blends Dual Xeon<br />

5500s, 64 Gbyte RAM<br />

A new ATCA single board computer is<br />

designed for demanding military networks where it<br />

will enable significantly faster network performance<br />

than is currently possible. Typical applications<br />

include <strong>Control</strong> Plane functions for WiMAX, LTE<br />

(Long Term Evolution) and NGN (Next Generation<br />

Networks) networks. The A10200 ATCA SBC from<br />

GE Intelligent Platforms features two Intel Xeon<br />

Nehalem 5500 Series dual or quad core processors<br />

and up to 64 Gigabytes of DDR3 SDRAM memory,<br />

and it delivers a combination of unsurpassed<br />

performance and low power dissipation.<br />

For LTE applications, the A10200 is suited for<br />

[www.ge-ip.com]. End of Article<br />

Get Connected<br />

with companies mentioned in this article.<br />

www.cotsjournalonline.com/getconnected<br />

[ 58 ] COTS Journal November 2011<br />

ATCA Blade Sports Six-Core Intel<br />

Xeon Processors<br />

ATCA has captured a solid niche in defense<br />

applications where large board space and heavy<br />

duty networking throughput are key. Kontron’s<br />

AdvancedTCA node blade AT8050 and its<br />

Kontron server board KTC5520 are available<br />

with the Intel Xeon processor 5600 series. This<br />

provides military network equipment providers<br />

a second feature-rich processor option for the<br />

two products that were originally designed with<br />

the Intel Xeon processor 5500 series.<br />

loration<br />

our goal<br />

directly<br />

ge, the<br />

ource.<br />

logy,<br />

products<br />

Mobility Management Entity (MME) and Home<br />

Subscriber Server (HSS). MME has a stringent<br />

requirement for user handover latency, and the<br />

A10200 with its multiple processing cores, faster and<br />

less contentious memory interfaces and high-speed<br />

The key feature differences with the Intel<br />

Xeon processor 5600 series compared to the<br />

5500 series are: six cores instead of four; 12<br />

threads versus 8; 32 nm technology compared<br />

to 45 nm; increased performance within the<br />

same thermal power envelope; new low-power<br />

Ethernet connectivity options is well suited for this platform consumption with LVDDR3L; and it<br />

application. HSS holds the subscriber database and maintains all the performance functionalities<br />

requires fast and reliable storage options, which the of the 5500 series plus a new hardware-<br />

A10200 offers in the form of dual SAS drives. More based security technology called Advanced<br />

demanding storage needs can be addressed by the Encryption Standard - New Instructions (AESuse<br />

of a customized rear transition module (RTM) NI). The Kontron ATCA node blade AT8050<br />

using dual Fibre Channel interfaces.<br />

features a single socket for either one quad-core<br />

ies providing Also solutions contributing now to the A10200’s leading-edge Intel Xeon processor L5518 or the six-core Xeon<br />

performance is its support for multiple Gigabit processor L5638. Both options are compatible<br />

on into products, technologies and companies. Whether your goal is to research the latest<br />

Ethernet and 10 Gigabit Ethernet interfaces, together with the existing Intel 5520 chipset, which<br />

ion Engineer, or jump to a company's technical page, the goal of Get Connected is to put you<br />

you require for<br />

with<br />

whatever<br />

a Gigabit<br />

type<br />

Ethernet<br />

of technology,<br />

maintenance port for remote supports up to 36 lanes of PCI Express 2.0<br />

nd products management you are searching and troubleshooting. for.<br />

The A10200 and directly assignable I/O for virtualization<br />

benefits from its implementation of Intel’s new 82599 (VT-d), significantly accelerating I/O traffic<br />

www.cotsjournalonline.com/getconnected<br />

Ethernet controller, which includes a new 40 Gbit/s and lowering processor use in both native and<br />

PCI Express interface and the ability to deliver up to<br />

a 250% improvement in network throughput.<br />

virtualized environments.<br />

GE Intelligent Platforms<br />

Charlottesville, VA.<br />

(800) 368-2738.<br />

Kontron America<br />

Poway, CA.<br />

(858) 677-0877.<br />

[www.kontron.com].<br />

ATCA GigE Switch Blade Puts<br />

RapidIO to Work<br />

The Ensemble BSW-201 AdvancedTCA<br />

RapidIO/GigE Switch Blade is the heart of the<br />

Ensemble AdvancedTCA (ATCA) Application<br />

Platform. This ATCA fabric and base switch<br />

blade provides a serial RapidIO fabric interface<br />

for ATCA systems with up to 14 slots, while also<br />

supporting Gigabit Ethernet communications<br />

via a GigE switch. The 10 Gbit/s system hub is<br />

ideal for next-generation base station, RNC and<br />

media gateway development.<br />

The BSW-201 Switch Blade is part of the<br />

Ensemble Serial RapidIO ATCA Platform,<br />

which is a standards-based solution built<br />

around the power, functionality and scalability<br />

of serial RapidIO, AdvancedMC, AdvancedTCA<br />

and MicroTCA. The platform supports a variety<br />

of I/O sources and heterogeneous processing<br />

endpoints, thereby reducing integration costs,<br />

improving efficiency and minimizing risks in<br />

design of next-generation applications.<br />

The blade sports three 8-port Tundra TSi578<br />

serial RapidIO switches and supports 21<br />

channels of Gigabit Ethernet communications<br />

via a GigE switch. Two mid-height, singlewidth,<br />

RapidIO-enabled AMC sites are<br />

provided along with an onboard MPC8548<br />

<strong>Power</strong>QUICC III host controller.<br />

Mercury Computer Systems<br />

Chelmsford, MA.<br />

(866) 627-6951.<br />

[www.mc.com].


ATCA Platform Targets Command<br />

and <strong>Control</strong> Apps<br />

ATCA has secured a solid niche in the<br />

military market, particularly for applications<br />

that stress high-performance communications<br />

and networking. RadiSys has announced the<br />

Promentum C2 Server, the industry’s first preintegrated,<br />

portable ATCA platform designed to<br />

provide the performance and features required<br />

for rugged, ground mobile applications in the<br />

Mil/Aero industry. The C2 Server leverages<br />

LCR Electronics’ ruggedized ATCA chassis and<br />

Astute Networks’ Edge Storage Blades in a rapidly<br />

deployable, higher performance platform with<br />

more than 30 percent weight decrease and lower<br />

power consumption than current rackmount<br />

servers. RadiSys’ C2 Server provides integrated<br />

computing, switching and storage in one easyto-manage<br />

platform that scales to meet most<br />

environmental and performance challenges<br />

presented to the Mil/Aero market.<br />

The C2 Server has been designed to meet<br />

the demanding environment requirements of<br />

MIL-STD-810 and can quickly be deployed and<br />

serviced in the field. The computing modules are<br />

certified with VMware ESXi, which allows the use<br />

of multiple operating systems for consolidation of<br />

application, and the use of VSphere to provide costeffective<br />

fault tolerance for critical applications.<br />

This pre-integrated RadiSys platform is based on<br />

best-of-breed technologies from three trusted<br />

industry experts and allows Mil/Aero contractors<br />

to focus primarily on their value-add of software<br />

and services, while reducing time-to-market.<br />

The pre-integrated C2 Server consists of a<br />

Ruggedized 6U 6-slot AC LCR Chassis, two<br />

RadiSys Promentum ATCA-2210 10 Gigabit<br />

Ethernet Switch and <strong>Control</strong> Modules with<br />

optional COM Express module, which can support<br />

platform management functions, up to four<br />

RadiSys Promentum ATCA-4500 series single<br />

board computers (SBCs) and Astute Networks’<br />

Caspian R1100 Edge Storage Blades.<br />

RadiSys<br />

Hillsboro, OR.<br />

(503) 615-1100.<br />

[www.radisys.com].<br />

ATCA Blades and Systems Roundup<br />

ATCA SSD Blade Provides 6<br />

Terabytes of Networked Flash<br />

We’re certainly living in the Terabyte era<br />

when it comes to embedded storage. Along<br />

those lines, SANBlaze <strong>Technology</strong>’s latest<br />

addition to the ATCA2000 Family of Storage<br />

Blades offers up to 6 Terabytes of solid state<br />

flash storage capacity. It boasts 1500 Mbytes/s<br />

of sustained backplane bandwidth, high<br />

IOPS (25,000) and low latency. The blade<br />

provides slots for up to ten 2.5” hot-swappable,<br />

enterprise class SSD (solid state drives), using<br />

MLC, eMLC or SLC-based flash chips. It is<br />

protected with a sophisticated hardware RAID<br />

engine that boasts an independent 1 Gbyte<br />

battery protected cache. Expansion to 20 disks<br />

is accomplished by pairing with a JBOD blade<br />

installed in an adjacent slot.<br />

The ATCA2000 SSD Blade enables dynamic<br />

expansion and re-allocation of flash capacity.<br />

Also, SSD drives can be mixed with rotating<br />

drives, to build hybrid storage solutions. The<br />

blade enables a fully homogenous ATCA<br />

deployment, with all the benefits therein: low<br />

power, ruggedness, reliability and interoperable<br />

modularity. The board eliminates the cost,<br />

space, management and power requirements of<br />

an external storage device without losing any<br />

functionality and performance. The ATCA2000<br />

improves system MTBF, system performance<br />

and system capacity, in a single slot ATCA<br />

footprint.<br />

SANBlaze <strong>Technology</strong><br />

Maynard, MA.<br />

(978) 897-1888.<br />

[www.sanblaze.com].<br />

MISSION MISSION<br />

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DEVICES DEVICES<br />

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AC-DC AC-DC<br />

<strong>Power</strong> <strong>Power</strong><br />

Supplies Supplies<br />

• Expanded Operating<br />

Temperatures -55 to +85C<br />

• Vibration, Method 204, Cond. D<br />

• Shock, Method 213, Cond. I<br />

• Altitude, Method 105, Cond. D<br />

• Environmental Screening<br />

• Specification Review<br />

• Custom Models Available<br />

• 400 Hz and Now -<br />

800 Hz AC-DC Models<br />

Thousands of Standard<br />

Models 2V to 10,000 VDC<br />

Outputs - 0.75 to 2,000 Watts<br />

PICO Electronics,Inc.<br />

143 Sparks Ave, Pelham, NY 10803-1837<br />

E-Mail: info@picoelectronics.com<br />

www.picoelectronics.com<br />

See full Catalog immediately<br />

www.picoelectronics.com<br />

November 2011 COTS Journal [ 59 ]<br />

Untitled-12 1 6/2/11 2:01:48 PM


Products<br />

COTS<br />

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products featured in this section.<br />

www.cotsjournalonline.com/getconnected<br />

3U CompactPCI SBC Family Is Cold Plate Cooled<br />

End of Article<br />

Products<br />

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with companies mentioned in this article.<br />

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Fan cooling isn’t acceptable in most deployed military systems. That has forced military SBC Get Connected with companies mentioned in this article.<br />

developers Get Connected to constantly with innovate companies their and passive products cooling featured technologies. in this section. Along such lines, www.cotsjournalonline.com/getconnected<br />

Curtiss-Wright www.cotsjournalonline.com/getconnected<br />

<strong>Control</strong>s Embedded Computing (CWCEC) has introduced a new family of compact,<br />

conduction-cooled rugged ½ ATR-style 3U CompactPCI systems. The MPMC-931x family of Multi-<br />

Platform Mission Computers comes in five standard configurations. Each of these fully developed<br />

system configurations features an integrated 28 VDC power supply and either a DCP-124P SBC <strong>Power</strong><br />

Architecture 7448 SBC or a DCP-1201 Intel Core2 Duo SBC. In addition, the MPMC-931x couples these<br />

processing capabilities with a variety of I/O modules to meet specific program requirements such as<br />

graphics, ARINC 429, MIL-STD-1553, Gigabit Ethernet Switching and more.<br />

The MPMC-931x provides high functional density in a small package. As a cold plate cooled<br />

system, the MPMC-931x is designed for reliable operation in harsh environments. Packaged in an<br />

ultra compact form factor and equipped with reliable, industry-leading processing solutions, the MPMC-931x has all the elements required of modern<br />

mission computers in space and/or weight-constrained applications. Optimal system cooling is ensured via thermal transfer between card edges of<br />

its conduction-cooled 3U cPCI cards and the base of the system enclosure. Environmental and EMI sealing is employed for accommodation of a wide<br />

variety of deployed platforms and environments. The MPMC-931x uses advanced packaging techniques to provide advanced processing power in a<br />

rugged enclosure that measures a compact 141.5 cubic inches and a lightweight 4.5 lb, yet is able to operate and survive in external air temperatures of<br />

55°C using a cold plate cooling approach.<br />

Curtiss-Wright <strong>Control</strong>s Embedded Computing, Ashburn, VA. (703) 737-3660. [www.cwcembedded.com].<br />

3 dB Hybrid Couplers Serve Defense Applications<br />

Narda, an L-3 Communications company, has introduced two<br />

90-degree “mini-hybrid” 3<br />

dB couplers that combine<br />

high isolation with extremely<br />

compact size and the ability<br />

to meet military specifications<br />

for temperature, shock and<br />

vibration. The Model 4031C<br />

operates from 500 MHz to 1 GHz<br />

with isolation of at least 30 dB,<br />

insertion loss of less than 0.2 dB, and maximum VSWR<br />

of 1.25:1. The coupler maintains amplitude balance of +/-0.6<br />

dB and phase balance of 5 degrees. Model 4034C operates from 4 to 8<br />

GHz with isolation of at least 20 dB and insertion loss of less than 0.3 dB,<br />

and maintains amplitude balance of +/-0.6 dB and phase balance of 10<br />

degrees.<br />

Narda Microwave, Hauppauge, NY. (631) 231-1700.<br />

[www.nardamicrowave.com/east].<br />

[ 60 ] COTS Journal November 2011<br />

Platform Bridges Gap between ATCA and MicroTCA<br />

ATCA is a large footprint form factor and offers extreme computing power, making it ideal for core<br />

network applications, but it is not very flexible or scalable. MicroTCA is a small footprint form factor, ideal<br />

for military Edge-based applications, but does not scale up well. PT is announcing a new product branded as<br />

MONTEREY 8000 that bridges the gap between AdvancedTCA and MicroTCA. This leaves many Aggregationlayer<br />

applications caught in the middle; demanding a mid-size compromise that has plenty of performance<br />

and high-speed bandwidth, but in a cost-effective smaller footprint with flexibility and modularity. PICMG<br />

emerged with the MicroTCA.4 specification, also known as MTCA.4.<br />

The Monterey 8000 platform, based on the Enhanced MicroTCA.4 specification along with highperformance<br />

processing, high-speed IP-based fabric switching, and integrated Linux OS, middleware and<br />

protocols, is highly tuned for next generation networking applications. The platform supports 12 AdvancedMC<br />

modules with Rear Transition Modules. Redundant 10GbE to AMCs is provided with 40GbE aggregated<br />

uplinks. Layer 2/3 Ethernet management is supported and the system provides carrier grade, five-nines<br />

availability with complete redundancy.<br />

PT, Rochester, NY. (585) 256-0200. [www.pt.com].<br />

Chassis Mount Switching AC/DC <strong>Power</strong> Supply<br />

Provides 100W<br />

ConTech has announced the<br />

CM100 Series of AC/DC switching<br />

power supplies. The CM100 Series<br />

offers 100 watts of fully regulated<br />

output power in a chassis mount case,<br />

which makes it well suited for many<br />

applications. The easily accessible<br />

terminal block and output voltage<br />

adjustment potentiometer give it<br />

the versatility to be used as a power solution in a large assortment of<br />

applications. The devices have a universal input voltage range of 88 to<br />

264 VAC. The series offers output voltages of 12, 24 and 48 VDC, with<br />

efficiencies up to 84%. Protective features include Short Circuit, Over<br />

Voltage and Overload protection. The metal cage type chassis mount<br />

case is designed for free air convection cooling. The CM100 series is rated<br />

for 3000 VAC isolation, is RoHS compliant, and has UL 60950 approval<br />

pending. Pricing for the CM100 Series is $22.50 each.<br />

ConTech, Concord, CA. (925) 609-1193. [www.contech-us.com].


Get Connected with companies and products featured in this section.<br />

www.cotsjournalonline.com/getconnected<br />

3D Handheld Display Offers Ultra<br />

Get Connected with companies and products featured in this section.<br />

Reliable www.cotsjournalonline.com/getconnected<br />

Imaging<br />

Today’s sophisticated smartphones have give<br />

warfighters a taste of what’s possible in a handheld<br />

device. IEE has integrated 3M’s revolutionary 3D<br />

film, which requires no 3D glasses, into its fieldproven,<br />

military-qualified handheld 4.8-inch control<br />

display unit (CDU). Initially developed for use in<br />

terrain mapping, remote robotics control and enhanced<br />

video feeds, the new 3D display is making its way into virtually all<br />

rugged military display applications from remote observation to training<br />

environments. In addition to the 3D functionality, key design elements are the<br />

unit’s small size and LED backlight technology that provides a low power, portable device with a<br />

higher resolution than other displays using 3D technology. The new 4.8-inch display decreases offaxis<br />

image reversals and color distortions, a common concern in the use of 3D technologies, and can<br />

easily be switched to 2D with imagery comparable to modern day smartphones.<br />

The display features a resolution of 800 x 480 x RGB with a typical brightness of 200 cd/m2 in<br />

both 2D and 3D modes with an optimum viewing distance of 16”. External dimension are 3.45 x<br />

5.98 x 1.22 inches. A system integration development (SID) kit that allows developers to work with<br />

the 3D display technologies and related software will be available for government agencies and<br />

prime contractors in first quarter of 2012. <strong>Technology</strong> demonstrations are available now, with units<br />

scheduled to ship in second quarter of 2012.<br />

IEE, Van Nuys, CA. (818) 787-0311. [www.ieeinc.com].<br />

2.5 kW Rectifiers Boast up to 400 VDC Output<br />

TDI <strong>Power</strong> has recently introduced its 2.5 kW Mercury Rectifier solution with up to 400 VDC<br />

output. The high-voltage Mercury rectifier module can be integrated into a TDI <strong>Power</strong> system or<br />

used as an OEM building block for customer-specific applications. With scope to provide nominal<br />

output voltages between 270V and 400V, the module is ideal for an array of vehicular, and batterybased<br />

solutions. Input voltage is 230 VAC at 2.5 kW, 100<br />

VAC at 1.2 kW. Nominal out is 376 VDC, but output<br />

can be factory preset between 400V and 270V. Also<br />

output can be programmed via a 0-5 VDC signal.<br />

Efficiency is 92% at 208 VAC input and 70% load. The<br />

device provides hot bus plug-in and N+1 redundancy.<br />

Multi-Octave Frequency Synthesizers<br />

Feature Low-Phase Noise<br />

A series of fast-switching frequency synthesizers is<br />

available in three custom multi-octave frequency bands<br />

to 8 GHz and is targeted as a lab source for prototype<br />

and benchtop testing. The three models from EM<br />

Research include the SBC-3000 frequency synthesizer,<br />

which operates from 400 to 3000 MHz, and features<br />

tuning steps of 1 Hz, with exceptionally low- phase<br />

noise (-100 dBc/Hz at 10 KHz). The SBC-5000 operates from 700 to<br />

5000 MHz, features tuning steps of 1 Hz, and low-phase noise (-95<br />

dBc/Hz at 10 KHz). The SBC-8000 operates from 5000 to 8000 MHz, features tuning steps of 1 Hz,<br />

with low-phase noise (-95 dBc/Hz at 10 KHz). The units are locked to a 10 MHz external reference<br />

and offer +7 dBm output power, -15 dBc harmonics and -60 dBc spurs. Options include external or<br />

internal references (10-500 MHz) and extended temperature ranges.<br />

EM Research, Reno, NV. (775) 345-2411. [www.emresearch.com]<br />

TDI <strong>Power</strong>, Hackettstown, NJ. (908) 850-5088<br />

[www.tdipower.com].<br />

COTS Products<br />

XMC Blends 1 GSPS ADCs and<br />

DACs with Virtex6 FPGAs<br />

At today’s level of semiconductor integration,<br />

computer data conversion signal processing<br />

subsystems can be squeezed onto a single<br />

mezzanine card. Along just those lines,<br />

Innovative Integration has announced the<br />

X6-1000M. The X6-1000M integrates highspeed<br />

digitizing and signal generation with<br />

signal processing on a PMC/XMC IO module<br />

for demanding DSP applications. The tight<br />

coupling of analog I/O to the Virtex-6 FPGA<br />

core dramatically simplifies SDR, radar and<br />

lidar implementations. The board features two,<br />

12-bit 1 Gsample/s A/Ds and four 1 Gsample/s<br />

16-bit DACs. Analog input bandwidth of over<br />

2 GHz supports wideband applications and<br />

RF undersampling. The DACs have features<br />

for interpolation and coarse mixing for<br />

upconversion.<br />

A Xilinx Virtex-6 SX315T (LX240T and<br />

SX475T options) with four banks of 1 Gbyte<br />

DRAM provides a very high-performance<br />

DSP core with over 2000 MACs (SX315T). The<br />

close integration of the analog I/O, memory<br />

and host interface with the FPGA enables<br />

real-time signal processing at extremely high<br />

rates. The X6-1000M power consumption is<br />

19W for typical operation. The module may<br />

be conduction cooled using VITA20 standard<br />

and a heat spreader. Ruggedization options<br />

for wide-temperature operation from -40° to<br />

+85°C and 0.1 g2/Hz vibration.<br />

Innovative Integration, Simi Valley, CA.<br />

(805) 578-4260. [www.innovative-dsp.com].<br />

November 2011 COTS Journal [ 61 ]


COTS Products<br />

Visualization System Provides 360° Local Situational Awareness<br />

Demand for complete function-specific system-level solutions is on the upswing in today’s military.<br />

Feeding that need, GE Intelligent Platforms offers a complete, self-contained, ready-to-run platform that<br />

enables 360° local situational awareness and is capable of being easily integrated into a broad range of<br />

existing and new military vehicles. The rugged IPS5100 is specifically designed to have minimal impact<br />

in terms of size, weight and power (SWaP) on a vehicle, enabling it to be deployed in environments<br />

that are highly space-constrained.<br />

The IPS5100 is capable of handling the input from 4 to 20 cameras depending on the color depth and<br />

resolution (via video streaming over Ethernet), and delivering video to up to four operator screens in its basic<br />

form. Scalable to more than twice those numbers, the capabilities of the IPS5100 include real-time panning and<br />

stitching, slew-to-cue pointing, motion detection and archive recording.<br />

The high performance of the IPS5100 delivers a typical latency below 80 ms, making it possible to drive a vehicle by using the real-time video images<br />

delivered by the IPS5100 system. IPS5100 hardware is a rugged 5-slot 3U OpenVPX chassis and enclosure that integrates GE’s Intel Core i7-based SBC324<br />

single board computer, the GFG500 Gigabit Ethernet Video Processor for the ingest of multiple GbE HD+ sensors, two GRA111 Graphics Processors,<br />

and the GE SDD910 solid state disk for up to 256 Gbytes of data storage. The IPS5100 measures just 8.5 x 7.0 x 8.9 inches, and weighs only about 20 lbs.<br />

GE Intelligent Platforms, Charlottesville, VA. (800) 368-2738. [www.ge-ip.com].<br />

2.5-Inch SATA SSD Offers 240 Gbytes of Storage<br />

Modular Technologies has<br />

announced a 2.5-inch SATA solid<br />

state drive. Called the Xcel-200,<br />

the drive delivers performance<br />

metrics of 500 Mbyte/s sequential<br />

read/write speeds and up to<br />

60K/40K random read/write<br />

IOPS. The Xcel-200 is available<br />

in capacities ranging from 60 to<br />

240 Gbytes, using highly reliable<br />

single-level-cell (SLC) NAND<br />

flash. The Xcel-200 was designed<br />

and tested per MIL-STD-810 to operate in high<br />

shock and vibration applications at industrial operating temperatures<br />

of-40° to +85°C. It is also certified for operation at altitudes up to 80,000<br />

ft. The Xcel-200 SSDs will be sampling in November 2011 and available in<br />

production volume in 1Q 2012.<br />

SMART Modular Technologies, Newark, CA. (510) 623-1231.<br />

[www.smartm.com].<br />

Rugged Military Grade 1U LCD Keyboard Drawers Provide Side Access<br />

The CCXR-17 Slideways 1U rackmount LCD keyboard drawer provides unique side access usage for spaceconstrained<br />

applications. It is military grade providing rugged 5052-H32 aluminum construction, 17-inch<br />

1280x1024 resolution, bonded Anti-Reflective glass contrast enhancement filter, NEMA-4 / IP65 sealed keyboard<br />

and a rugged 4-port KVM. A contrast enhancing glass Anti-Reflective (AR) filter is bonded to the LCD for<br />

superior contrast in high bright environments. A separate bonded layer provides an ITR EMI filter across the face<br />

of the display. A military grade Genesis LCD controller provides a mix of features with aRGB VGA and DVI-D<br />

video inputs. The controller is conformal coated for environmental and shock/vibration protection and supports<br />

an operating temperatures of -40° to +80°C.<br />

Two keyboards are offered providing either 133 keys and a Hula point mouse device or 97 keys with a touch<br />

pad. Both keyboards are sealed silicon rubber and provide full travel with tactile feedback for ease of typing and<br />

are sealed to NEMA-4 / IP65 standards. The 97-key keyboard is also backlit for use in low light situations. Both<br />

keyboards provide a spill proof system impervious to spills such as Coke or coffee, common in the rugged environments these are installed into.<br />

Chassis Plans, San Diego, CA. (858) 571-4330. [www.chassis-plans.com].<br />

[ 62 ] COTS Journal November 2011<br />

Demo Kit Promotes Engagement<br />

in Open goJTAG Initiative<br />

Within the framework of the<br />

goJTAG initiative, Goepel Electronic<br />

has developed a new demonstration<br />

kit. In addition to the USB 2.0<br />

controlled Boundary Scan controller<br />

PicoTAP and respective software, it<br />

contains a specific demo board for<br />

practical exercises. The initiative<br />

founded by various universities and<br />

the company Testonica Lab, pursues the goal of providing<br />

the industry JTAG/Boundary Scan tools and knowledge based on an<br />

independent and non-commercial platform, sustainably accelerating the<br />

wide adoption of standardized IEEE 1194.x test methods. The opensource<br />

project goJTAG provides IEEE 1149.1 training software that can<br />

be run in both simulation mode as well as online mode. The tool enables<br />

numerous graphical displays on various levels. In the online mode users<br />

are able to utilize the software for the new demo board for individual<br />

projects without restrictions. The goJTAG software includes simulation<br />

components that fully reveal every single bit of movement along the scan<br />

chains with a single TCK precision.<br />

GOEPEL Electronic, Jena, Germany. +49 3641-6896-0. [www.goepel.com].


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USB-PET Protocol and Electrical Tester Includes “On the Go” Testing<br />

Get Connected with companies and products featured in this section.<br />

www.cotsjournalonline.com/getconnected<br />

A new USB protocol and electrical tester is capable<br />

of performing the suite of tests defined in the USB<br />

Implementers Forum, Inc.'s “Battery Charging,<br />

USB On-The-Go and Embedded Host Automated<br />

Compliance Plan.” The Packet-Master USB-PET from<br />

Saelig is connected to a host PC using a High-Speed USB<br />

connection, and controlled using the GraphicUSB application software, which can generate test<br />

reports and perform analyzer-style captures. USB-PET's front panel features a micro-AB receptacle<br />

and a D-type connector for connection to a unit-under-test. The rear-panel allows the connection of<br />

a meter or oscilloscope for monitoring, for example, VBUS voltage. Single unit price is $5,995.<br />

Saelig, Pittsford, NY. (585) 385-1750. [www.saelig.com].<br />

Unmanaged, Low-<strong>Power</strong> 12-Port Gigabit Ethernet Switch Module<br />

A rugged 12-port Gigabit Ethernet switch module is an<br />

extremely low-power, high-performance Ethernet switch.<br />

The H2 from North Atlantic Industries supports 16 Kbyte<br />

jumbo frames, 802.1P QoS or DiffServ/ToS priority<br />

queues, 802.1Q VLAN, Port Aggregation, Spanning Tree,<br />

Rapid & Multiple Spanning Tree, NAT, Port Forwarding,<br />

DNS, DHCP and Firewalling. The module can be<br />

mounted on a 3U cPCI or 6U VME rugged board. When<br />

mounted on a 6U VME board, single board computer<br />

and/or additional I/O functions can be added to support<br />

system-level requirements for processing and sensor<br />

interfacing.<br />

The H2 implements standard Ethernet switching<br />

functions via Broadcom technology and features IPv4<br />

and IPv6 traffic class support, automatic learning and<br />

aging tags at 6.6W with 12 x GigE ports active at 85°C.<br />

It also supports a true non-blocking GigE integrated<br />

switch fabric with 4 Mbit packet buffer memory (for L2<br />

functionality) and a high-performance look-up engine<br />

with support for up to 8K unicast MAC addresses.<br />

The H2 module switch enables system integrators<br />

to link Ethernet-based communications, control systems and sensor data across a broad range of<br />

application-ready subsystems. Customers looking forward to the next generation of unmanned<br />

aircraft systems (UAS) and other autonomous robotic systems will take advantage of the high<br />

channel density and extremely low power features our H2 has to offer. In addition, based on NAI’s<br />

COTS, multifunction, high-density I/O and processor platforms (such as 75D3, 64DP3, 64E3),<br />

multiboard systems can be configured combining the H2 multiport GigE switch capability with<br />

application-specific processing and I/O.<br />

North Atlantic Industries, Bohemia, NY. (631) 567-1100. [www.naii.com].<br />

Small, Flexible Sensor Measures Temperature and Air Velocity<br />

A flexible, robust candlestick sensor can simultaneously measure both temperature and air velocity for<br />

characterizing thermal conditions in electronic systems. The MS 1000-CS-WC from Advanced Thermal Systems is<br />

a candlestick-shaped sensor that is narrow and low profile to minimize disturbance of heat flow in the test domain.<br />

Its flexible, plastic-sleeved stem eases installation and repositioning during the testing process. MS 1000-CS-WC<br />

candlestick sensors are calibrated for both low (natural convection) and high velocity flows. They are capable of<br />

temperature measurements ranging from -30° to +150°C ±1°C. Velocity measurements range from 0 to 50 m/s<br />

(10,000 ft/min) ±2%. The sensor’s stem is just 0.5 mm in diameter; its base diameter is 9.5 mm. Three different<br />

heights are available: 9, 12 and 20 mm. Prices for MS 1000-CS-WC candlestick sensors start at $180.<br />

Advanced Thermal Solutions, Norwood, MA. (781) 769-2800. [www.qats.com].<br />

COTS Products<br />

PMC Modules Do Cost-Effective<br />

FPGA Processing<br />

A set of new PMC mezzanine modules<br />

features the cost-optimized Xilinx Spartan-6<br />

FPGA. The PMC-SLX reconfigurable FPGA<br />

modules from Acromag can save thousands<br />

of dollars, yet still deliver high-performance<br />

computing for algorithm acceleration and<br />

custom logic processing tasks. Spartan-6<br />

FPGAs have integrated logic, DSP and memory<br />

resources that leverage the flagship Virtex-6<br />

FPGA platform’s architecture and systemlevel<br />

blocks for quicker and smoother system<br />

development. Acromag adds a high-throughput<br />

PCI-X interface, large memory banks, and easy<br />

access to field I/O signals to deliver a readyto-use<br />

FPGA computing module for advanced<br />

signal processing applications. All models<br />

employ the logic-optimized SLX150 version of<br />

the Spartan-6 FPGA, which provides 147,433<br />

logic cells and 180 DSP slices. Dual-ported<br />

SRAM (256k or 1M x 64-bit) facilitates highspeed<br />

DMA transfers to the bus or CPU. The<br />

base price is just $2,895 with extra memory and<br />

extended temperature options available.<br />

Acromag, Wixom, MI. (248) 295-0310.<br />

[www.acromag.com].<br />

November August 2011 COTS Journal [ 63 ]


COTS Products<br />

6U OpenVPX Blade Server with Integrated 10 Gigabit Ethernet<br />

Switch<br />

A rugged, high-performance 6U VPX (VITA 46) Single Board Computer (SBC) features a<br />

quad-core Intel L5408 Xeon processor and integrated 10 Gigabit Ethernet switch to support<br />

full-mesh backplane data layer interconnectivity for up to eight SBCs integrated into a single<br />

chassis. Available in air-cooled or conduction-cooled formats, the CPU-111-10 from Parvus<br />

conforms to the OpenVPX (VITA 65) payload module profile MOD6-PAY-4F2T-12.2.2.4 with<br />

four fat pipes (10 GBase-BX4) and two thin pipes (1000Base-T).<br />

Providing unparalleled data processing capabilities in a single-slot 6U VPX form factor<br />

card with built-in 10 Gigabit Ethernet fabric switching, the CPU-111-10 serves as an ideal<br />

open-architecture building-block for next-generation Command, <strong>Control</strong>, Communications,<br />

Computers, Intelligence, Surveillance and Reconnaissance (C4ISR) applications onboard<br />

(un)manned air / ground vehicles and shipboard platforms. Standard onboard I/O resources<br />

include up to eight 10 Gigabit Ethernet, two 1 Gigabit Ethernet, four SATA, two USB 2.0, one<br />

RS-232/485 and VGA video ports. Dual XMC / PMC expansion module sites enable additional<br />

I/O expansion, including 10G XAUI lanes from each XMC card to the 10G switched fabric.<br />

Offered in both convection-cooled and ruggedized conduction-cooled variants, the CPU-<br />

111-10 is designed for use with ANSI/VITA 46 1.0” pitch VPX form factor backplanes. Air-cooled variants provide a front panel SFP+ port supporting<br />

CX4 copper and fiber applications for chassis-to-chassis and rack-to-rack communications. Conduction-cooled variants feature traditional board<br />

stiffeners, heat spreaders and wedge locks to passively transfer heat to the chassis and tolerate high shock and vibration environments. An optional Rear<br />

Transition Module (RTM) is available that brings out VPX I/O over industry standard connectors.<br />

Parvus, Salt Lake City, UT. (801) 483-1533. [www.parvus.com].<br />

[ 64 Untitled-5 ] COTS 1Journal November 2011<br />

10/6/11 9:46:16 AM


Get Connected with companies and products featured in this section.<br />

www.cotsjournalonline.com/getconnected<br />

COTS Products<br />

Software Radio Module Provides FPGA Preconfigured for Turnkey Operation<br />

Get Connected with companies and products featured in this section.<br />

www.cotsjournalonline.com/getconnected A new multichannel data converter with digital down and upconverters boasts two channels each of 12-bit,<br />

500 MHz A/D and 16-bit, 800 MHz D/A. The Model 71651 from Pentek has a Xilinx Virtex-6 FPGA at its core.<br />

The FPGA is preconfigured with data acquisition and playback IP to give the module turn-key functionality,<br />

with room left for user customization. The Model 71651 features two input and two output RF channels,<br />

transformer-coupled to allow direct connection to HF or IF radio stages. The input channels feature 12-bit,<br />

500 MHz A/Ds that feed data into the Virtex-6 FPGA. The output channels incorporate a Texas Instruments<br />

DAC5688 digital upconverter that translates real or complex baseband signals to any IF frequency up to 380<br />

MHz. Dual 16-bit, 800 MHz D/As create real or in-phase (I) and quadrature (Q) analog outputs.<br />

Four types of preconfigured IP in the FPGA help simplify the capture, movement and playback of data.<br />

Three Acquisition IP modules accept data from any of the A/Ds, a test signal generator, or the Playback IP in<br />

loopback mode. These acquisition modules each have a private memory bank for storing data in capture mode,<br />

or to serve as a FIFO buffer for the linked-list DMA engine to move data off-board through the x8 Gen 2 PCIe<br />

interface. The DMA engines can automatically generate meta-data to simplify host processing.<br />

The D/A Waveform Playback Module provides a linked-list controller so users can easily deliver waveforms<br />

stored in onboard or host memory to the D/As. Up to 64 individual link entries can be chained together to<br />

create complex waveforms with a minimum of programming. Parameters for each waveform include length of<br />

waveform, delay from playback trigger, waveform repetition, plus the link to the next waveform.<br />

Pentek, Upper Saddle River, NJ. (201) 818-5900. [www.pentek.com].<br />

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August 2011 COTS Journal [ 65 ]


POWER YOUR LAPTOP & CHARGE YOUR BB-2590<br />

MILITARY BATTERY WITH SOLAR POWER<br />

LIND’S SOLAR CHARGE SYSTEM<br />

The Lind Solar Charge System<br />

is used in conjunction with the<br />

BB-2590 rechargeable battery (not<br />

included). The system consists of<br />

the combination charge control/DC<br />

output module, a foldable 60 watt<br />

solar panel and related cabling for<br />

complete connection between the<br />

battery, laptop and solar panel.<br />

For more information, please contact<br />

Lind at 1.800.897.8994, via email at<br />

info@lindelectronics.com, or visit us<br />

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[ 66 ] COTS Journal November 2011<br />

POWER SPECIALISTS FOR MOBILE COMPUTING<br />

Untitled-8 1 1/11/11 11:40:44 AM<br />

Untitled-5 1 9/9/11 6:35:00 PM<br />

COTS Products<br />

Fanless System Offers 5 Ethernet Ports, Wide<br />

Temperature Range<br />

Two new fanless systems<br />

feature Intel’s Core i5/<br />

i7 Mobile CPUs and HD<br />

graphics housed in a durable,<br />

sleek chassis. The Neousys<br />

NUVO-1003B and NUVO-<br />

1005B from Logic Supply<br />

offer high-performance<br />

computing in a wide<br />

operating temperature range<br />

of -25° to 70°C. In addition to<br />

the three or five Intel 82574L Gigabit Ethernet ports, both NUVO systems<br />

boast a broad suite of I/O capabilities. Featuring one RS-232/422/485<br />

port, three RS-232 ports, PS2 mouse and keyboard input, six USB 2.0<br />

ports, VGA and DVI/HDMI video output, the NUVO series ensures ease<br />

of integration with legacy systems and next-generation applications alike.<br />

Storage options include a 2.5” SATA HDD bay, accessible by a single-screw<br />

trap door, externally accessible CompactFlash, and two eSATA ports for<br />

external storage.<br />

Logic Supply, South Burlington, VT. (802) 861-2300.<br />

[www.logicsupply.com].<br />

EPIC Form Factor SBC Serves Up Vortex86DX<br />

Processor<br />

An economical EPIC format single board computer (SBC) features<br />

extensive I/O capabilities, very low power consumption and fanless<br />

operation over the full industrial temperature range. The Newt board<br />

from VersaLogic leverages<br />

DM&P's Vortex86DX System on<br />

Chip (SoC). It offers 800 MHz<br />

performance, full industrial<br />

temperature (-40° to +85°C)<br />

operation, and very low power<br />

requirements. Based on the<br />

industry-standard EPIC form<br />

factor (4.5 x 6.5 inches), the<br />

Newt is designed for headless<br />

applications (no video output), or it may be used<br />

with plug-in video expansion modules.<br />

The Newt features built-in data acquisition ports including sixteen<br />

analog inputs, up to eight analog outputs and thirty-two digital I/O<br />

lines. Basic onboard I/O includes single or dual Ethernet with network<br />

boot capability, up to 1 Gbyte soldered-on DDR2 RAM, up to four USB<br />

ports, four serial ports, IDE controller with support for two devices,<br />

CompactFlash socket or eUSB interface (optional) for removable flash<br />

storage, and three general purpose timers. An industry-standard PC/104-<br />

Plus expansion site provides plug-in access to a wide variety of expansion<br />

modules from numerous vendors. The SPX expansion interface provides<br />

additional plug-in expansion for low-cost analog, digital and CANbus<br />

I/O. Pricing starts at $411 in OEM quantities.<br />

VersaLogic, Eugene, OR. (541) 485-8575. [www.VersaLogic.com].


Get Connected with companies and products featured in this section.<br />

www.cotsjournalonline.com/getconnected<br />

CompactPCI Serial Board Provides Flexible<br />

Get Connected with companies and products featured in this section.<br />

Configuration<br />

www.cotsjournalonline.com/getconnected<br />

A universal CompactPCI Serial<br />

peripheral board provides flexible serial<br />

communication via an individual mix<br />

of UART and fieldbus interfaces and is<br />

targeted at mission-critical industrial,<br />

mobile and harsh environment<br />

applications. Although equipped<br />

with five standard interfaces, the<br />

G215 from Men Micro features a<br />

configurable FPGA IP core that offers<br />

nearly unlimited interface options<br />

that enable several functionalities. Developed for use in harsh embedded<br />

environments, the G215 has an operating temperature range of -40° to<br />

+85°C, with all components soldered to withstand shock and vibration.<br />

The use of Altera's new Cyclone 4 high-performance FPGA enables users<br />

to develop intelligent applications, as found when using programmable<br />

processors, such as a Nios softcore. The FPGA also handles fieldbuses such<br />

as CAN, InterBus-S or the vehicle bus IBIS. Pricing for the G215 is $490.<br />

MEN Micro, Ambler, PA. (215) 542-9575. [www.menmicro.com].<br />

A/V Solutions<br />

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FLASH Arrays<br />

COTS Products<br />

FPGA-Based Frame Grabber and Motion Drive Serve<br />

Vision Applications<br />

Serving military<br />

vision and control<br />

applications, two<br />

new additions to the<br />

reconfigurable I/O<br />

(RIO) technology<br />

from National<br />

Instruments include<br />

a reconfigurable Camera Link frame grabber for demanding embedded<br />

vision applications, and a motion module for the NI CompactRIO<br />

platform. The NI PCIe-1473R frame grabber is a PC-based embedded<br />

vision board that combines field-programmable gate array (FPGA)<br />

technology with a Camera Link interface to help engineers create highperformance<br />

embedded imaging and inspection applications. The NI<br />

9502 brushless servo drive C Series module makes it possible for engineers<br />

to drive brushless servo motors, including six new custom NI motor<br />

options, directly from the reconfigurable CompactRIO system to address<br />

advanced motion control challenges.<br />

National Instruments, Austin, TX. (512) 794-0100. [www.ni.com].<br />

RAID <strong>Control</strong>lers<br />

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DESIGN SERVICES<br />

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MANUFACTURING SERVICES<br />

We offer turnkey manufacturing services for pre-production and small to medium quantities.<br />

November 2011 COTS Journal [ 67 ]<br />

prismadv2.indd 1 8/29/11 1:20:31 PM


Index<br />

Advertisers Index<br />

Company Page# Website Company Page# Website<br />

Advanced Micro Devices, Inc. ............7 .................... www.amd.com/embedded<br />

Ballard <strong>Technology</strong>, Inc. .....................72 ...........................www.ballardtech.com<br />

Calex Mfg. Co., Inc. .............................4 ..................................... www.calex.com<br />

Critical I/O, LLC .................................35 ...............................www.criticalio.com<br />

Data Translation, Inc. .........................21 .....................www.datatranslation.com<br />

Elma Electronic, Inc. ...........................14......................................www.elma.com<br />

Extreme Engineering Solutions, Inc. ..25 ......................................www.x-es.com<br />

Falcon<br />

Get<br />

Electronics,<br />

Connected<br />

Inc. ......................65 ............................ www.falconelec.com<br />

with companies and<br />

GE products Intelligent featured Platforms, in this Inc. section. .............43 .................................... www.ge-ip.com<br />

General www.cotsjournalonline.com/getconnected<br />

Micro Systems, Inc. ..............15...............................www.gms4sbc.com<br />

Innovative Integration .........................17 ......................www.innovative-dsp.com<br />

Interface Concept ...............................32 ..................www.interfaceconcept.com<br />

ISI Nallatech, Inc. ...............................18............................... www.nallatech.com<br />

JMR, Inc. ............................................41 ........................................www.jmr.com<br />

Get Connected with companies and products featured in this section.<br />

Kontron ...............................................23 ................................ www.kontron.com<br />

www.cotsjournalonline.com/getconnected<br />

Lauterbach GmbH ..............................22 ............................www.lauterbach.com<br />

LCR Electronics, Inc. ..........................40 .................................. www.lcr-inc.com<br />

LeCroy Corporation .............................4 .................................... www.lecroy.com<br />

Lind Electronics, Inc...........................66 .....................www.lindelectronics.com<br />

LiPPERT Embedded Computers, Inc. ...24.................. www.lippertembedded.com<br />

Logic Devices, Inc. .............................26 .........................www.logicdevices.com<br />

Mercury Computer Systems, Inc. ......27 ........................................www.mc.com<br />

MILESTONE .......................................55 ......................www.milestoneconf.com<br />

Mobile Pathways ................................46 ...................www.mobilepathways.com<br />

Mountain Secure Systems .................45 ..... www.mountainsecuresystems.com<br />

MSC Embedded, Inc. .........................49 .....................www.mscembedded.com<br />

Multicore Boards Gallery ...................16...............................................................<br />

Products<br />

www.cotsjournalonline.com/getconnected<br />

Get Connected with technology and companies providing solutions now<br />

Get Connected is a new resource for further exploration into products, technologies and companies. Whether your goal is to research the latest<br />

datasheet from a company, speak directly with an Application Engineer, or jump to a company's technical page, the goal of Get Connected is to put you<br />

in touch with the right resource. Whichever level of service you require for whatever type of technology,<br />

Get Connected will help you connect with the companies and products you are searching for.<br />

www.cotsjournalonline.com/getconnected<br />

Coming Next Month<br />

[ 68 ] COTS Journal November 2011 2011<br />

North Atlantic Industries ....................19........................................www.naii.com<br />

Ocean Server <strong>Technology</strong>, Inc. ..........53 ........................www.ocean-server.com<br />

Octagon Systems Corporation ...........71 .................. www.octagonsystems.com<br />

One Stop Systems, Inc. ......................47 .................. www.onestopsystems.com<br />

End Phoenix International of Article<br />

.........................66 ...............................www.phenxint.com<br />

Pico Electronics, Inc. ......................13, 59 ................. www.picoelectronics.com<br />

Presagis USA, Inc. ..............................5 ................................www.presagis.com<br />

Prism Computer Solutions .................67 ................................www.prismcs.com<br />

Get Connected<br />

RTC Embedded with companies Technologies, mentioned Inc. in ..2, this 36, article. 37 ................................... www.rtd.com<br />

RTECC www.cotsjournalonline.com/getconnected<br />

................................................69 .....................................www.rtecc.com<br />

SynQor ........................................... 29, 64 ...............................www.synqor.com<br />

TDI <strong>Power</strong> ...........................................42 ............................... www.tdipower.com<br />

Trenton <strong>Technology</strong>, Inc. ....................33 ....................www.trentonsystems.com<br />

Get Connected with companies mentioned in this article.<br />

Xembedded ........................................48 ..........................www.xembedded.com<br />

www.cotsjournalonline.com/getconnected<br />

ARE YOU<br />

A seasoned embedded technology professional?<br />

Experienced in the industrial and<br />

military procurement process?<br />

Ever thinking about writing as a career?<br />

CONTACT SANDRA SILLION AT THE RTC GROUP<br />

TO EXPLORE AN OPPORTUNITY<br />

sandras@rtcgroup.com<br />

COTS Journal (ISSN#1526-4653) is published monthly at 905 Calle Amanecer, Suite 250, San Clemente, CA 92673. Periodicals Class postage paid at San Clemente and additional mailing offices.<br />

POSTMASTER: Send address changes to COTS Journal, 905 Calle Amanecer, Ste. 250, San Clemente, CA 92673. Ride-Along Enclosed.<br />

Special Feature: Size, Weight and <strong>Power</strong> Hurdles for Small UAV <strong>Control</strong> The flight control, mission control and<br />

communications gear aboard Small UAVs—like the Raven, Dragon Eye, Shadow and Killer Bee—face some of the most rigorous<br />

size, weight and power restrictions. Selecting the right embedded electronics and embedded computers in those systems<br />

becomes a make or break decision. This section focuses on the electronics aboard UAVs under 1,320 pounds and range from<br />

Line-of-sight control UAVs up to those that fall under the “light sport aircraft” standards.<br />

Tech Recon: I/O Architectures in Rugged Box-Level Systems Stand-alone rugged box-level systems have become a fixture in the military market. These<br />

complete system boxes often support standard form factor boards inside them. The problem is there’s no standard scheme for I/O configurations. New VITA<br />

standards are attempting to rectify this, but there’s a debate on which approach is the best. This section looks at this issue and product class and outlines challenges<br />

they present.<br />

System Development: VPX and VME Tackle Airborne I/O and Data Storage VME and its successor VPX have a strong grip on the military slot-card<br />

embedded computing realm. Whether it’s a system refresh program using backward-compatible VME cards, or a new system requiring VPX performance, there’s<br />

a wide variety of product and technology choices for developers. This section explores the use of these form factors in airborne systems that depend heavily on<br />

I/O and data storage for their functionality.<br />

Tech Focus: XMCs and Processor XMCs XMCs are becoming entrenched as the natural successor to PMC as the leading mezzanine form factor in military applications.<br />

Meanwhile fabric-based Processor XMCs accommodate that trend nicely, enabling military system integrators to swap out just the computing core and leave the<br />

base board unchanged. This Tech Focus section updates readers on these trends and provides a product album of representative XMC and PrXMC products.


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[ 70 ] COTS Journal November 2011<br />

COTS<br />

Editorial<br />

Jeff Child, Editor-in-Chief<br />

Disconnect in the Networked<br />

Vehicle Road<br />

When former Secretary of Defense Robert Gates cancelled<br />

the Army’s massive Future Combat System (FCS) program<br />

two years ago, it certainly disrupted the direction of a future<br />

vehicle strategy and the opportunities for embedded computing<br />

electronics that went along with it. It’s not possible to say for sure,<br />

but it looked like OpenVPX would have had FCS as an emblematic<br />

design win if the program had progressed as planned. OpenVPX is<br />

very likely to be a candidate for new vehicle electronics efforts, but<br />

with FCS the uptake may have happened sooner. In hindsight, it was<br />

a bold and smart decision on Gates’ part to scrap FCS and start with a<br />

sort of blank slate. Continuing on a path of preparing for conflicts 20<br />

years in the future is fine. But when that approach steals mindshare<br />

and funds away from current needs, it is problematic.<br />

In the aftermath of FCS, the Army turned its efforts toward new<br />

vehicle developments, primarily the Ground Combat Vehicle (GCV).<br />

And along with that, the networking part of FCS has taken a parallel<br />

path—though not so closely coupled with a specific vehicle program.<br />

At this point however, it’s fair to say that neither the vehicle nor the<br />

networking side of this rebooted effort has moved forward all that<br />

smoothly. In his column in this issue, Pete does a nice exploration of<br />

the uncertain state of Army and Marine vehicle plans for the future.<br />

Here, I’ll look at some of the unique troubles on the networking side<br />

of the DoD’s vehicle effort.<br />

Whether the ambition of a seamless unified network of manned<br />

and unmanned systems as envisioned by FCS was even possible isn’t<br />

clear. But post-FCS the Army has shifted to a more realistic strategy<br />

to develop and field a tactical information network for its deployed<br />

forces. On the downside, that’s moving in the direction of developing<br />

a number of “stovepipe” capabilities that may not work together as a<br />

network, thus wasting resources. A recent GAO report cites how in<br />

this new approach numerous programs will be developed separately<br />

and coordinated centrally. The plan is for network increments to be<br />

integrated and demonstrated before they are fielded. This replaces<br />

the previous practice of ad hoc development and integration in the<br />

field. This new approach involves coordinating the schedules of the<br />

separate programs with the Army’s planned, semiannual field events,<br />

called network integration evaluations (NIEs). During these events<br />

emerging technologies are put in soldiers’ hands for demonstration<br />

and evaluation.<br />

In its report, the GAO cites several issues in need of resolution<br />

as the Army moves its network strategy forward. First off, the Army<br />

does not have a blueprint or framework for using its various current<br />

networking capabilities with the ones it is acquiring. The danger being<br />

the risk of acquiring technologies that may work in a stand-alone<br />

mode but do not add utility to the broader network strategy. There’s<br />

also been criticism of the lack of test protocols to objectively capture<br />

performance of the mobile data networks evaluated during the NIE<br />

exercises. This includes not having the proper instrumentation gear to<br />

do operational tests on large integrated networks, and not having clear<br />

network requirements.<br />

Another hurdle in the Army’s network efforts is the loss of the Joint<br />

Tactical Radio System (JTRS) ground mobile radio (GMR), a softwaredefined<br />

radio that was expected to be a key component of the network.<br />

The GMR was recently terminated. In a letter to a congressional defense<br />

committee explaining the termination, Frank Kendall, Acting<br />

Under Secretary of Defense for Acquisition, <strong>Technology</strong> and Logistics,<br />

stated that the termination was based on growth in unit procurement<br />

costs. Kendall said it is unlikely that Joint Tactical Radio System ground<br />

mobile radio would affordably meet requirements and may not meet<br />

some requirements at all. The GMR performed poorly during the network<br />

integration evaluation and was given a “stop development and<br />

do not field” assessment by the test unit. A replacement program was<br />

established but it’s not clear when and how that program will proceed.<br />

Also, the way that these new radios will be able to fit within the<br />

Army’s network strategy is yet to be determined.<br />

Among the challenges of the Army’s future tactical network<br />

plans is the sheer complexity of deploying wideband networking<br />

and soldier radio waveforms. It’s not clear that these technologies<br />

are at acceptable levels of maturity. And again, the loss of the ground<br />

mobile radio makes it unclear how waveform maturation will continue.<br />

In terms of scope, the WIN-T and JTRS programs provide the<br />

mission-command-on-the-move capability and integrate the soldier<br />

in the network to some degree. That said, those programs of record<br />

don’t provide a unifying capability to fully network the force. As one<br />

Army spokesmen said in a recent Defense Systems interview, “[JTRS<br />

and WIN-T] don’t connect all the way down to the company level<br />

and don’t provide the mission-essential capabilities to the earlier battalions<br />

that were not connected previously.”<br />

On a positive note, the Army has reportedly developed an approach<br />

to solicit ideas from industry and demonstrate the proposed<br />

technologies in the NIE exercises. The plan includes a strategy to identify,<br />

demonstrate and field emerging technologies and to expedite those<br />

actions. So far the Army is still formulating its approach for funding<br />

and rapidly procuring the more promising technologies.


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