<?xml version="1.0" encoding="UTF-8"?><rss version="2.0"
	xmlns:content="http://purl.org/rss/1.0/modules/content/"
	xmlns:wfw="http://wellformedweb.org/CommentAPI/"
	xmlns:dc="http://purl.org/dc/elements/1.1/"
	xmlns:atom="http://www.w3.org/2005/Atom"
	xmlns:sy="http://purl.org/rss/1.0/modules/syndication/"
	xmlns:slash="http://purl.org/rss/1.0/modules/slash/"
	>

<channel>
	<title>Objective Individual Combat Weapon &#8211; Small Arms Defense Journal</title>
	<atom:link href="https://sadefensejournal.com/tag/objective-individual-combat-weapon/feed/" rel="self" type="application/rss+xml" />
	<link>https://sadefensejournal.com</link>
	<description></description>
	<lastBuildDate>Tue, 15 Aug 2023 15:03:15 +0000</lastBuildDate>
	<language>en-US</language>
	<sy:updatePeriod>
	hourly	</sy:updatePeriod>
	<sy:updateFrequency>
	1	</sy:updateFrequency>
	<generator>https://wordpress.org/?v=6.9.4</generator>

<image>
	<url>https://sadefensejournal.com/wp-content/uploads/2022/03/favicon.png</url>
	<title>Objective Individual Combat Weapon &#8211; Small Arms Defense Journal</title>
	<link>https://sadefensejournal.com</link>
	<width>32</width>
	<height>32</height>
</image> 
	<item>
		<title>Daewoo K11 Advanced Combat Rifle: The Future Has Arrived</title>
		<link>https://sadefensejournal.com/daewoo-k11-advanced-combat-rifle-the-future-has-arrived/</link>
		
		<dc:creator><![CDATA[Jason M. Wong]]></dc:creator>
		<pubDate>Sat, 07 Jan 2012 00:35:10 +0000</pubDate>
				<category><![CDATA[Author Name]]></category>
		<category><![CDATA[New Products]]></category>
		<category><![CDATA[Reviews]]></category>
		<category><![CDATA[Search By Issue]]></category>
		<category><![CDATA[V3N1]]></category>
		<category><![CDATA[Volume 3]]></category>
		<category><![CDATA[2011]]></category>
		<category><![CDATA[Daewoo Precision]]></category>
		<category><![CDATA[Jason Wong]]></category>
		<category><![CDATA[K11]]></category>
		<category><![CDATA[Objective Individual Combat Weapon]]></category>
		<category><![CDATA[OICW]]></category>
		<category><![CDATA[S&T Daewoo products]]></category>
		<guid isPermaLink="false">http://sadefensejournal.com/wp/?p=766</guid>

					<description><![CDATA[Daewoo Precision, maker of the USAS12 combat shotgun, K1 and K2 battle rifles, and the K3 LMG, has manufactured well designed and robust weapon systems.  The Daewoo Precision systems often appeared similar to existing products, yet were distinct and unique in design.  Those familiar with use and operation of the K3 LMG will immediate identify [&#8230;]]]></description>
										<content:encoded><![CDATA[<p>Daewoo Precision, maker of the USAS12 combat shotgun, K1 and K2 battle rifles, and the K3 LMG, has manufactured well designed and robust weapon systems.  The Daewoo Precision systems often appeared similar to existing products, yet were distinct and unique in design.  Those familiar with use and operation of the K3 LMG will immediate identify the outward resemblance and manual of arms required for the Fabrique Nationale Minimi/M249, yet the design and most internal parts between the two weapon systems are not interchangeable.  Not to be deterred, the K3 is a very reliable weapon system, and is currently in use with Republic of (South) Korea armed forces.</p>
<p>Long absent from the U.S. and international arms market, Daewoo Precision was an unfortunate victim of the Asian credit crisis of the late 1990s.  Purchased in bankruptcy by Korean conglomerate S&amp;T, the company has emerged from bankruptcy as S&amp;T Daewoo.  Not surprisingly, the same high quality designs and manufacturing features that created the Daewoo Precision legacy have safely emerged as an asset from which to build new S&amp;T Daewoo products.</p>
<p>Those familiar with innovations in U.S. weapon design will recall the OICW, the Objective Individual Combat Weapon, which integrated a 5.56mm battle rifle with a 20mm air-burst grenade system.  After spending hundreds of millions of dollars, industry titans in the U.S. were unable to produce a working model that met U.S. procurement requirements.  Over due and over budget, the U.S. based project was cut back, and has lingered for a number of years with limited success.  Based upon the similar design features as the OICW, the K11 has emerged as a real potential to the PICW puzzle.  Similar to the OICW, the K11 features an integrated 5.56mm battle rifle in conjunction with a 20mm bolt action airburst munition system.</p>
<p><strong>The System</strong><br />
The K11 system features three main components – the 5.56mm battle rifle, the 20mm bolt action grenade launcher, and the integrated laser range finder/munition programming and arming system.  The design of the system is well thought out with fire controls placed in intuitive locations.</p>
<p><strong>The 5.56mm Battle Rifle</strong><br />
At the core of the system is a 5.56 battle rifle.  The rifle was not disassembled during testing.  Nevertheless, the rifle (as tested) featured a 310 mm (12.2047 inch) barrel, with a four-prong flash hider.  The rifle appeared to be a piston based recoil design.  The twist rate of the barrel is unknown.</p>
<p><a><img decoding="async"  alt="" width="100%" data-src="https://dev.sadefensejournal.com/wp-content/uploads/2022/04/k11_2.jpg" class="lazy" src="data:image/svg+xml,%3Csvg%20xmlns='http://www.w3.org/2000/svg'%20viewBox='0%200%200%200'%3E%3C/svg%3E" /></a></p>
<p>Fire controls are on the left side of the weapon in the traditional location for most western designed weapons.  The selector switch was easily accessed by the shooter’s thumb while gripping the pistol grip.  Utilizing a four position selector switch, the position descriptions were written in Korean Hangeul characters.  The selector switch, while common in shape and location, proved to be a little different than any other selector switch encountered on previous rifles.  The position for “safe” was in the traditional 9 o’clock position.  This is good to remember when the markings are not in English and are essentially undecipherable to non-Korean speakers.</p>
<p>From the safe position, the other three fire control positions were unique.  Moving counter clockwise, the 6 o’clock position puts the rifle into three-round burst mode.  Recoil was light, and allowed the weapon to stay on target throughout the burst.  Cyclic rate was not measured, but seemed comparable to the M4 carbine.  The three-round burst system appears to use an internal mechanism to count the number of rounds fired.  Releasing the trigger before three rounds have been fired results in the next burst being short by the number of fired rounds previously fired.  This type of mechanism is not unusual, and can be seen in the three-round burst mechanism used in the M16A2 rifle system.  Rotating the selector switch to the 3 o’clock position places the rifle into semiautomatic mode, allowing the rifle to fire a single round per pull of the trigger.  Rotating the selector switch to the 12 o’clock position places the 20mm system into firing mode, allowing a single trigger to control both the 5.56mm and 20mm systems.  While the two systems cannot be fired concurrently due to the common trigger, it would seem unlikely that an M203 would be fired at the same time as the M4 carbine host.  The use of a common trigger for firing the 5.56 and 20mm systems did not appear to be a detriment to the overall weapon system.</p>
<p>The weapon’s charging handle is on the left side of the weapon, above the trigger.  The charging handle is a non-reciprocating design that is held to the rear in conjunction with the bolt – that is, when the bolt is locked to the rear, the charging handle is also in the rearward position.  Brass ejects forcibly from the right side of the weapon in conjunction with an integrated brass deflector similar in size and shape of the M4 carbine brass deflector.  During testing, the brass ejected 15-20 feet to the 2 o’clock position of the shooter.  Persons standing directly to the right of the shooter would likely avoid a hot brass shower.</p>
<p>The bolt hold open switch is on the forward edge of the trigger guard; push the lever up from the bottom forward outside edge of the trigger guard while retracting the bolt to hold the bolt to the rear.  Pushing the lever down from the inside of the trigger guard releases the bolt and allows the bolt to close into battery.  The magazine release is to the right side of the weapon and features a small fence similar to an M4 to protect against accidentally releasing the magazine from the weapon.</p>
<div class="img " style="width:100%px;">
	<a><img decoding="async"  alt="" width="100%" data-src="https://dev.sadefensejournal.com/wp-content/uploads/2022/04/k11_3.jpg" class="lazy" src="data:image/svg+xml,%3Csvg%20xmlns='http://www.w3.org/2000/svg'%20viewBox='0%200%200%200'%3E%3C/svg%3E" /></a>
	<div>Small Arms Defense Journal Editor Dan Shea (right) receiving instruction on use and operation of the K11.</div>
</div>
<p><strong>The 20mm Weapon System</strong><br />
The 20mm weapon system is a magazine fed, single shot, bolt action weapon, utilizing a 405 mm (15.9449 inch) barrel.  When firing the 20mm munition, the trigger is double action only and suffers from the long trigger pull commonly associated with bullpup-type systems that utilize a transfer bar to fire the weapon.  Ammunition is being developed by Poongsan, a well-known Korean ammunition manufacturer that manufactures PMC ammunition sold within the United States.</p>
<p>While ammunition for the 20mm weapon system was not available during the test fire, the basic concepts of the system were explained and put into practice.  The magazine holds five rounds of training or high explosive ammunition.  Training ammunition contains no explosive.  The 20mm explosive rounds feature an internal fuze with four settings: point detonation, point detonation-delay, airburst, and self-destruct.  To load the system, one inserts a loaded 20mm magazine and manipulates the bolt for the 20mm system rearward.  Pushing the bolt forward engages a 20mm round from the magazine and provides a controlled feed of the round from the magazine to the chamber.  In this regard, the 20mm system is very similar to the common bolt action rifle.   The selector switch is rotated to the 12 o’clock position to fire the 20mm weapon; then the shooter takes aim, and pulls the trigger.  Unloading is accomplished by reversing the manual of arms.</p>
<p><strong>The Optic System</strong><br />
The heart of the K11 system is the integrated weapon sight.  As the weapon sight for both the 5.56 and 20mm weapon systems, the weapon sight provides aiming solutions for both weapons.  To aim the weapon, one looks through the weapon sight.  It is presumed that the weapon sight has integrated night vision capability, but thermal capability is unknown.  The reticle features a number of aiming points; however the most important point is the upward pointing chevron at the lower center position of the reticle.  The chevron is the aiming point for the laser range finder.  Place the chevron on target, engage the laser range finder, and a red crosshair aiming point appears within the sight.  Using the new crosshair, the aiming solution is presented to the shooter and the shooter need only place the crosshair on target and pull the trigger.</p>
<p>The laser range finder is activated by pushing the forward most button on the right side of the weapon’s forward grip.  The range finder button has two small wings to the side of the button to allow tactile identification of the button without visual identification.  The system automatically compensates for 5.56 or 20mm, depending upon where the fire control selector switch is placed.  If the selector switch is in the semi-auto or burst position, the weapon sight will provide a firing solution for the 5.56 battle rifle.  If the selector is in the 12-o’clock position, the sight will provide an aiming point for the 20mm munition.</p>
<p><strong>Arming and Programming the 20mm Munition</strong><br />
Recall that the fuze within the 20mm high explosive round has four settings: point detonation, point detonation-delay, airburst, and self-destruct.  The self-destruct feature is a backup to the three primary settings, and is automatically programmed into the high explosive round.  The fuze settings are programmed by the weapon sight, in conjunction with three additional buttons adjacent to the laser range finder button.</p>
<div class="img " style="width:100%px;">
	<a><img decoding="async"  alt="" width="100%" data-src="https://dev.sadefensejournal.com/wp-content/uploads/2022/04/k11_4.jpg" class="lazy" src="data:image/svg+xml,%3Csvg%20xmlns='http://www.w3.org/2000/svg'%20viewBox='0%200%200%200'%3E%3C/svg%3E" /></a>
	<div>Small Arms Defense Journal Editor Dan Shea (right) receiving instruction on use and operation of the K11.</div>
</div>
<p>To program the type of burst desired from the 20mm munition, the shooter utilizes the left oval button on the weapon’s forward grip.  The button has a horizontal groove to allow tactile identification without visual cues.  With the weapon’s selector switch in the 12-o’clock position, the shooter pushes the program button.  In the upper left corner of the optic, Hangeul Korean characters appear, describing the type of fuze setting selected.</p>
<p>The point detonation selection is the most basic of settings; the munition detonates upon impact with the target.  Point Detonation-Delay is intended for breaching and penetrating soft targets, allowing the munition to burst inside the target.  Information regarding penetration of the 20mm munition when programmed for Point Detonation-Delay was not provided.  Finally, the airburst setting allows the shooter to program the munition to burst at a pre-determined point during flight.  To allow effective use of the PDD and Airburst functions, the shooter may program the 20mm munition to burst in front of, or behind the point identified by the laser range finder.</p>
<p>The two vertical buttons on the weapon’s forward grip allow the shooter to move the detonation point in one-meter increments.  In this manner, the shooter could use the laser range finder to determine the distance to a closed door.  By changing the detonation point, the shooter could elect to have the munition penetrate the closed door (via the PDD setting within the weapon sight) and program the munition to detonate several meters inside the building after penetrating the door.  Similarly, the same function could be used to program the munition to burst in front of the target, when placed in airburst mode.  If the munition is programmed but not fired within 2 minutes of being programmed, the munition will disarm itself.  The shooter must then wait a period of five-minutes to allow the electrical charge within the munition to fully dissipate prior to re-programming the round.  In the event that the round impacts a soft target (i.e., mud or sand) and does not detonate, the automatic safety mechanism within the fuze will detonate the munition within 2 seconds of the round coming to rest.  As a result, it is unlikely that the munition will cause or add unexploded ordnance to the battlefield.</p>
<p><a><img decoding="async"  alt="" width="100%" data-src="https://dev.sadefensejournal.com/wp-content/uploads/2022/04/k11_5.jpg" class="lazy" src="data:image/svg+xml,%3Csvg%20xmlns='http://www.w3.org/2000/svg'%20viewBox='0%200%200%200'%3E%3C/svg%3E" /></a></p>
<p>Problems with the U.S. OICW included fragment size and dispersion radius upon detonation.  In simple terms, the fragments of the 20mm munition were too small to be very effective.  In addition, there was insufficient explosive material within the 20mm OICW round to create an effective killing radius.  Finally, when detonated in airburst mode, the rules of physics resulted in the majority of fragments being dispersed vertically and away from the intended target, rendering the fragments ineffective.  These three issues worked in conjunction to kill the U.S. OICW program.   It is unknown whether Poongsan has addressed this issue within the K11 20mm munition design.</p>
<p><strong>Conclusion</strong><br />
Is the K11 for every soldier on the battlefield?  Arguably, no.  It goes without saying that weapons are built as a system, and specific features cannot be evaluated in a vacuum.  That said, the K11 is heavy, weighing in at 6.1 kg (13.448 pounds).  Nevertheless, there is a proper time and place for such a weapon, whether used in a static position, a mechanized role, or in a limited field engagement.  The ability to fire an airburst munition and defeat troops behind cover represents a revolutionary step in battlefield tactics and will necessitate changes to field defenses.  Similarly, the ability to penetrate concealment and light cover and detonate the munition within an enclosed space via the Point Detonation Delay fuze setting also has the ability to change the manner in which infantry and dismounted troops engage the enemy.</p>
<p>The question is bound to arise – why does the M4 carbine and M203 need to be replaced?  Both weapons function well and are combat proven.  Those following the discussion within the arms community realize that there are strong proponents and arguments for replacement and maintaining the current systems.  This article is not intended to support or deny either argument, but rather showcase current technology and demonstrate what is currently in development and available to potential government and military end users.</p>
]]></content:encoded>
					
		
		
			</item>
		<item>
		<title>2009 NDIA Award Winners</title>
		<link>https://sadefensejournal.com/2009-ndia-award-winners/</link>
		
		<dc:creator><![CDATA[SADJ Staff]]></dc:creator>
		<pubDate>Thu, 11 Aug 2011 01:58:43 +0000</pubDate>
				<category><![CDATA[Industry Profiles]]></category>
		<category><![CDATA[Search By Issue]]></category>
		<category><![CDATA[V1N1]]></category>
		<category><![CDATA[Volume 1]]></category>
		<category><![CDATA[2009]]></category>
		<category><![CDATA[Joel M. Goldman]]></category>
		<category><![CDATA[Joint Service Small Arms]]></category>
		<category><![CDATA[JSSAP]]></category>
		<category><![CDATA[Lt. Col. George M. Chinn Award]]></category>
		<category><![CDATA[Objective Crew Served Weapon]]></category>
		<category><![CDATA[Objective Individual Combat Weapon]]></category>
		<category><![CDATA[OCSW]]></category>
		<category><![CDATA[OICW]]></category>
		<guid isPermaLink="false">http://sadefensejournal.com/wp/?p=199</guid>

					<description><![CDATA[Each year at the NDIA Small Arms Annual Meeting, the George M. Chinn Award is presented annually to honor a government or industry individual who, in the opinion of the Small Arms Systems Division Executive Board, has made significant contributions to the field of small arms and/or infantry weapons.  Joel M. Goldman has devoted almost forty years in the pursuit of better ways to design, develop, and manufacture small arms weapons, ammunition, propellant and explosives....]]></description>
										<content:encoded><![CDATA[<p><a><img decoding="async"  alt="" width="100%" data-src="https://dev.sadefensejournal.com/wp-content/uploads/2022/03/ndia1.jpg" class="lazy" src="data:image/svg+xml,%3Csvg%20xmlns='http://www.w3.org/2000/svg'%20viewBox='0%200%200%200'%3E%3C/svg%3E" /></a></p>
<p><strong>2009 Chinn Award:  Joel M. Goldman</strong><br />
Each year at the NDIA Small Arms Annual Meeting, the George M. Chinn Award is presented annually to honor a government or industry individual who, in the opinion of the Small Arms Systems Division Executive Board, has made significant contributions to the field of small arms and/or infantry weapons.</p>
<p>Joel M. Goldman has devoted almost forty years in the pursuit of better ways to design, develop, and manufacture small arms weapons, ammunition, propellant and explosives.  Joel has had a long and diversified career working for the US Government.  His career began working as an engineer working on research and development related to small arms propellants.  He worked on the development of a Pilot Line for ball propellant at Badger AAP.</p>
<p>Other notable programs that Joel was involved with as Chief of the Joint Service Small Arms (JSSAP) Program Office included: the Advanced Combat Rifle Assessment, in which four weapons concepts were tested against the baseline M16A2 rifle.  Ammunition Concepts included a caseless ball concept, a brass-cased flechette concept, a duplex concept and plastic-cased flechette concept.  The results of the test failed to demonstrate an increase in hit probability over the M16A2 under the stress conditions of the test.</p>
<p>The next major programs Joel was involved with as the Chief of the JSSAP Office were Technology Objective Programs such as the Objective Individual Combat Weapon (OICW) and the Objective Crew Served Weapon (OCSW) Program.  The OICW introduced technology such as miniature electronic time fuzes and small caliber air-bursting munitions.  It also introduced integrated range-finding, sensors, ballistic computer fuze setter technology and adjusted aim point fire control.  The OCSW introduced technology to include air-bursting munitions in a crew-served configuration, new recoil mitigation, self-correcting fuzing, and Laser Steering target tracking.</p>
<p>Under Joel’s direction, JSSAP conducted a series of assessments for technology work to include: modified bullets and propellants; alternate cartridge case materials; alternate weapons mechanisms; miniature electronic time fuzes; advanced laser range finders; individual/vehicle mounted fire control systems and MEMS safe and arm devices.</p>
<p>The current major project under Joel’s direction at JSSAP is Lightweight Small Arms Technologies.  The joint program is an effort to design and develop lightweight ammunition and weapons, while maintaining or improving the lethality and reliability over the current small arms weapons.  The program is evaluating caseless ammunition and case telescoped ammunition being fired from a lightweight machine gun.  Modeling and simulation are being used extensively throughout the program for designing, prototyping and testing the ammunition and weapons concepts as well as the integrated system.  Value to the warfighter include: weight reduction of 40% for the ammunition and 35% for the weapon as well as reduced volume, improved training and maintenance and a decreased logistics burden.</p>
<p>Joel M. Goldman has devoted almost forty years to making significant contributions to the field of small arms.  He starts each day thinking of ways to improve the equipment in the hands of our soldiers.  His life-long commitment to small arms is evident and therefore is a deserving recipient of the 2009 Chinn Award.</p>
<p><strong>What is the Chinn Award?</strong><br />
The George M. Chinn Award is presented annually to honor a government or industry individual who, in the opinion of the Small Arms Systems Division Executive Board, has made significant contributions to the field of small arms and/or infantry weapons systems.  A significant contribution is considered to be a creative invention, new design or innovative concept in small arms weapons, ammunition or ancillary equipment that provides an advancement in the state-of-the-art or capability enhancement that clearly benefits the warfighting or general military capability of the United States.  The Chinn Award may also be conferred as recognition to an individual who has performed sustained superior service in a career field of science, engineering, test and evaluation, manufacturing, program management, academic study and research, publishing or maintenance relating to military small arms or infantry weapons.</p>
<p>The Chinn Award is named in honor of Lt. Col. George M. Chinn, a career Marine Corps officer who dedicated his life to the study, development and refinement of machine gun mechanisms.  Lt. Col. Chinn is remembered for his work as a gun designer and for having compiled a five volume reference work entitled The Machine Gun.</p>
<p><strong>Past Chinn Award Winners</strong><br />
1988: Thomas E. Cosgrove<br />
1989: James Ackley<br />
1990: John S. Wood, Jr.<br />
1991: Roderic A. Spies<br />
1992: not awarded<br />
1993: Edward C. Ezell<br />
1994: Richard E. Brown<br />
1995: Joseph Unterkofler<br />
1996: C. Reed Knight, Jr.<br />
1997: Robert A. Trifiletti<br />
1998: George E. Kontis<br />
1999: Vernon E. Shisler<br />
2000: Salvatore A. Fanelli<br />
2001: L. James Sullivan<br />
2002: Ernst Mauch<br />
2003: Phil Baker and Georges Chauveheid<br />
2004: Ronnie Barrett<br />
2005: Rich Audette<br />
2006: Richard Swan<br />
2007: Bill Dittrich<br />
2008: Troy Smith<br />
<strong>2009: Joel Goldman</strong></p>
<p><a><img decoding="async"  alt="" width="100%" data-src="http://sadefensejournal.com/wp-content/uploads/2011/08/ndia2.jpg" class="lazy" src="data:image/svg+xml,%3Csvg%20xmlns='http://www.w3.org/2000/svg'%20viewBox='0%200%200%200'%3E%3C/svg%3E" /></a></p>
<p><strong>2009 Ambrose Industry Award:  Otis Technology Inc.</strong><br />
At the tender age of 15, when most girls are more concerned about their looks and boys, Doreen Marks Garrett, founder and CEO, was enjoying one of her numerous interests; hunting with her father, Jerry Williams.  It was during this hunting trip that she missed a step, stumbled and fell.  The muzzle of her rifle impacted the soft ground and was plugged with dirt.  Not being able to clean the rifle, her day of hunting was ruined.  But this misadventure has changed the way the armed forces and hundreds of thousands of sportsmen and women world wide clean their weapons.  Garrett was determined to find a way to prevent any possibility of having another hunting trip ruined, so she set to work trying to develop her own gun cleaning kit that she could carry and have available when and if she needed.</p>
<p>In 1985 when she was 16, and after numerous trials and failures, Doreen Garrett designed the first breech to muzzle cleaning kit; the first of the numerous Otis cleaning kits to be developed.  This first kit was called “The Whole Kit and Caboodle”.  This same year, Garrett attended her first SHOT Show in Orlando, Florida.  Unable to gain access due to her age, she returned to her hotel and changed clothes, added makeup and returned to the convention center.  Access was granted and when she departed, she did so with orders for three hundred kits.  Doreen Garrett, her mother and father sat to work at the kitchen table manufacturing the kits so she could fill the orders.  In 1990, Garrett got her first Small Business Administration loan for $97,000 to renovate her parent’s barn enabling her to move the expanding operation from the kitchen table.  1997, with six employees, Garrett moved the operation from the family barn to an abandoned hardware store in Lyons Falls, New York.  Then in 2005, production moved to a new 43,000 square foot plant.  The plant has since expanded twice: a 23,643 square foot addition was added in early 2008, and most recently, finalizing a 16,000 square foot, state of the art warehouse and automatic warehouse system.</p>
<p>Today, almost 25 years, since that fateful slip and numerous pitfalls, Garrett, with the help of her family, has revolutionized how we clean our weapons and has become one of the premier producers of firearms cleaning products in the world.  Otis Breech-to-Muzzle Cleaning systems are widely regarded by experts as the most advanced gun gleaning systems in the world.  Their product is in service today with the US Armed Forces, Law Enforcement professionals, and the worlds’ best hunters and marksmen.  Otis Technology, Inc. has been operating for 25 years and Garrett has received numerous awards along the way, including:</p>
<p>2007: Fast Track 50, ranking 3rd in the over $10 million category;</p>
<p>2007: Automated Best Value System Award presented by the Defense Supply Center Columbus;</p>
<p>2008: recognized as the fastest growing company in Central New York by the Fast Track 50;</p>
<p>2008: Proclamation in Recognition at the Lewis County Court House, Lowville, NY.</p>
<p>Otis Technology currently has specialized cleaning kits for the US Armed Forces that are designed to clean all weapons from caliber .22 up to and including 40mm grenade and supplies tens of thousands of these kits through an active GSA contract to our warriors yearly. Garrett is a customer focused business person and ensures that customer’s desires or concerns are addressed as soon as possible and new items are designed and manufactured, customer tested and made available as soon as possible. Otis’ Breech to Muzzle cleaning philosophy has all but made the old cleaning rods obsolete. The Otis cleaning kits are designed to be inexpensive, compact, light (about 1/2 lb), portable and easy to use, thus ensuring every soldier has the right equipment to keep his weapon clean, lubricated and ready to fire when and if the need arises and, as an added plus, proper cleaning can actually prolong the service life of the weapon.</p>
<p>In 2006 Otis Technology opened a $1.3 million on-site day care center to provided low cost day care for their employees as well as reduced day care cost to residents in Lyons, NY.</p>
<p>Otis Technology has made vast advancements over the past 25 years to become the largest manufacturer of gun cleaning products in the United States. Otis holds more than 35 patents, 14 trademarks and sells gun cleaning kits worldwide to military and law enforcement agencies, including the Central Intelligence Agency, the Federal Bureau of Investigation, U.S. Army and U.S. Navy. Their annual sales were in an excess of $40 million this past year.</p>
<p>Otis has demonstrated that they are deserving of the prestigious Ambrose Industry Award.</p>
<p>2009 Hathcock Award:  Robert J. Thomas, U.S. Navy (retired)<br />
<em>(Picture not available at press time)</em></p>
<p>Robert J. Thomas is considered by many to be the Founding Father of Joint Special Operations Weapons.</p>
<p>In the late 1970s, Special Operations Forces (SOF) first began using flashlights and infrared aiming lasers on guns, in addition to limited numbers of night vision goggles and night vision sights provided by the parent services.  Not until 1986 would Congress require the President to create a unified combatant command specifically for global special operations roles, missions, and tasks, and, unique among other combatant commands, that would control its own resources, research, development and acquisition.  Until USSOCOM unified Army, Navy and Air Force Special Operations units, the weaponry allocations for units were a systemic nightmare.  Every SOF unit had its own allotment of non-standard peculiar weapons and accessories; more than 120 different varieties of small arms existed in Special Forces, Rangers and SEALs.  Their “homegrown” lasers, flashlights and silencers were rudimentary and most could not stand up to weapon recoil nor combat environments.  Most commercial aiming accessories of the time were not “ruggedized” and often failed firing combat insertions and gunfights.  In short, SOF small arms and aiming devices were ineffective and unsupportable.  The first USSOCOM Commander, General James Lindsay, U.S. Army, set about resolving small arms and aiming equipment inconsistencies.  He established the joint SOF weapons and aiming systems that would be standardized across SOF forces.  A destructive Capabilities Master Plan unified ground combat weapons, ammunition and sighting systems under a coherent joint roadmap.  Robert J. Thomas was instrumental in the formulations of this plan, particularly for Sniper Rifles, the SOF Offensive Handgun and Stand-off Weapons.  Following this capability planning effort, USSOCOM developed joining requirements documents for united systems.  During the next 15 years, USSOCOM established several Joint Special Operations small arms and weapons programs at the Naval Surface Warfare Center (NSWC), Crane Division, Crane, Indiana, that would directly address the Operational Requirements articulated by Robert Thomas.</p>
<p><strong>MK23 Mod 0 Offensive Handgun </strong><strong>Weapon System (OHWS) “SOCOM Pistol”</strong><br />
Robert Thomas was the operationally experienced shooter behind the requirement for the Mark 23 handgun.  Over 2,500 weapons were fielded to US SOF units as a result of this successful program.  While the Mark 23 handgun was not accepted by many SOF units (due to its size and bulk), Thomas’ contention that to be effective, a handgun must deliver a larger surface area, higher in velocity projectile than the 9mm NATO and the .45 ACP ammunition has been recently validated.  Current commanders and forces in Iraq and Afghanistan are demanding a more compact handgun that will deliver the accuracy and lethality of the MK 23.  Additionally, another result of the OHWS program was the AN/PEQ-6 Laser Aiming Module, a standardized handgun aiming module that is still thriving today and is the foundation for all modern light and laser aiming device.</p>
<p><strong>MK11, MK12, MK13, and MK15 Sniper Systems</strong><br />
Robert Thomas was the person that shaped the requirements for the SOF family of sniper rifles.  His experience as a champion long range shooter and operational sniper formed the basis for writing Operational Requirements for light, medium and heavy sniper rifles.  His early articulated Sniper Rifle Operational Requirements were the genesis of the currently proliferated Joint SOF Sniper Rifles and have resulted in the U.S. Army adoption for semiautomatic sniper systems chambered for the 7.62mm bolt-action .300 Winchester Magnums and bolt-action rifles for the .50 caliber BMG.  Robert Thomas could well be called the father of the modern family of SOF joint sniper rifles.</p>
<p><strong>Continued Service to the Global War on Terrorism</strong><br />
Robert Thomas continues to serve with distinction fully researching weapon trends and aiming devices being utilized in current conflicts.  Thomas has evaluated SOPMOD and SOF weapons aiming doctrine through the eyes of a SOF operational sniper.  His experience in long range shooting and marksmanship in all operational arenas from the Arctic mountains, to Equatorial jungles, through the deserts of the Horn of Africa and the Middle East, has provided invaluable insight as to the most effective employment of current weapons and technologies.  Robert Thomas is presently employed in both the SOPMOD Program for small arms training and doctrine development, as well as the SOF Weapons Program, providing expertise to the Precision Sniper Rifle project.</p>
<p>The operational experiences that Robert Thomas gained as a Naval Special Warfare Sniper (and father of the NSW Sniper Course), Officer in Charge of the Navy Rifle and Pistol Team, military competitive shooter and weapons development officer, provided him with unique insight into the operational requirements for Special Operations Forces long-range weapons and aiming devices.  His dedication to duty and contributions to United States Special Operations Forces small arms capabilities are unmatched.  The years of Naval Special Warfare operations and depth of knowledge that Robert Thomas brings to all of the SOPMOD SOF Weapons programs is superb, but perhaps his greatest contribution lies in the stream of graduates of the Naval Special Warfare Sniper Course, who continue to perform superbly in all operational theatres of the world.  These snipers best represent the Robert Thomas philosophy: “A SOF warrior cannot carry enough ammunition to ever miss a shot.”  Robert Thomas most recently was entrusted with the new USSOCOM development project for sniper laser aiming and range-finding.</p>
<p><strong>Awards</strong><br />
Navy Cross: Armed action RVN;<br />
Bronze Star (Combat V): Armed action RVN;<br />
Purple Heart: Wounded in action RVN;<br />
Navy Commendation Medal (Gold Star in lieu of second award) in recognition for development of NSW small arms, Navy JSSAP representative and leadership of Navy Rifle and Pistol Team;<br />
Meritorious Service Medal for development of Strike-Naval Special Warfare Tactics and Doctrine;<br />
Distinguished Master Rifle and Pistol Shooter;<br />
President’s Hundred Rifle Shooter (four times)</p>
<p><strong>Combat and Military Accomplishments</strong><br />
1967: Graduated Underwater Demolitions Team (UDT/R) training and assigned to UDT-22;<br />
1968: Assigned SEAL Team 2; Ordnance Petty Officer; Stoner Armorer;<br />
1969: Deployed to the Republic of Vietnam (RVN) as Detachment ALPHA Seventh Platoon Ordnance/Platoon Sniper;<br />
1969: March – shot down by enemy ground fire while conducting sniper reconnaissance aboard a Navy Seawolf and awarded Navy Cross for subsequent defense of helicopter crew;<br />
1970: Instructor SEAL Team 2 small arms training, selected for the All Navy Rifle and Pistol Team;<br />
1977: Navy Representative to JSSAP and validated Squad Automatic Weapon (SAW) requirement;<br />
1978: Attended Army (Rock Island) and Navy (Crane) Armorer’s Courses;<br />
1979: Wrote Operational Requirement and developed the .50 caliber Special Application Sniper Rifle (SASR);<br />
1980: Wrote Operational Requirement for Naval Special Warfare .300 Win Mag Sniper Rifle and developed final loads within Judge Advocate General (JAG) guidelines;<br />
1981: Developed and instituted Special Air Service, Australian Army Sniper course;<br />
1983: Developed and instituted Naval Special Warfare Sniper Course;<br />
1984: Wrote Naval Special Warfare Patrol Leaders hand book;<br />
1984: Wrote Operational Requirement for Sniper Security Rifle and developed an effective, rugged, scoped M14 Sniper Security Rifle;<br />
1985: Wrote Naval Special Warfare Sniper Manual and Winter Warfare Manual;<br />
1986: Wrote Operational Requirement for Naval Special Warfare Stand Off –Weapon Systems and validated the Carl Gustav 84MM recoilless rifle;<br />
1993: Wrote Operational Requirement for Mark 23 SOF Offensive Handgun and associated special ammunition and validated the handgun and ammunition through final acceptance;<br />
2007: Wrote the new field combat manual for the M4A1 Carbine using SOPMOD accessories.</p>
<p><strong>Marksmanship/Match Accomplishments</strong><br />
1970: Atlantic Fleet/All Navy/Inter-Service/National Matches and earned points toward Distinguished in Excellence-In-Competition Rifle Matches at all levels;<br />
1971: Pacific Fleet/National Championships; Distinguished Excellence-In-Competition Rifle;<br />
1978-81: Won Pacific Fleet/All Navy Rifle and Pistol Championships and Distinguished Excellence-In-Competition Pistol;<br />
1982-1983: Won Western Australian Service Rifle and Pistol Championships;<br />
1984-1993: Won Pacific Fleet and All Navy Rifle and Pistol Championships.</p>
<p>The Carlos N. Hathcock II Award is presented to recognize an individual, who, in the opinion of the Small Arms Section Steering Committee, Armaments Division, National Defense Industrial Association, has made significant contributions in operational employment and tactics of small arms weapons systems which have impacted on the readiness and capabilities of the United States military or law enforcement.  A significant contribution is considered to be: superior performance of duties in an operational environment or the development of tactics or training.</p>
<p><strong>What is the Hathcock Award?</strong><br />
The Hathcock Award is named in honor of Gunnery Sergeant Carlos N. Hathcock II, a career Marine who dedicated his life to the service of this country in both the military and law enforcement communities.  He was honest, tactful, considerate, courageous, quietly proud and determined in all things and all places from the range to the battlefield.  “The Gunny” not only distinguished himself in combat as a scout-sniper but also as a competitive marksman and trainer.  In his capacity as a trainer he not only significantly impacted the current United States Marine Corps Scout-Sniper program but also influenced the sniper programs of the other military services and similar law enforcement programs nationwide.</p>
<p><strong>Past Winners</strong><br />
1999: Carlos Hathcock<br />
2000: Charles B. Mawhinney<br />
2001: Bart Bartholomew<br />
2002: Jim Owens<br />
2003: Larry Vickers<br />
2004: Steve Holland<br />
2005: Pat Mitternight<br />
2006: Allen Boothby<br />
2007: American Snipers.org<br />
2008: J. Buford Boone<br />
2009: Robert J. Thomas</p>
]]></content:encoded>
					
		
		
			</item>
	</channel>
</rss>
