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Archive for the ‘SOF’ Category

SOFWERX – Illicit Finance Group

Thursday, August 23rd, 2018

One of the most effective tools to counter transnational threats is the ability to identify and interrupt their financial networks.

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Illicit Finance (IF) is at the forefront of the international agenda. Governments, academia, and the financial services industry worldwide are joining forces to combat fraud, money laundering, tax evasion, cryptocurrency, international bribery, and human trafficking.

On Wednesday, 3 October, from 11:00 AM-1:30 PM, SOFWERX will host an Illicit Finance meeting where representatives from the Department of Defense, law enforcement, institutions of higher education, and the financial services industry come to share information and discuss joint-collaboration efforts at hand.

Those interested in participating should visit www.sofwerx.org/illicitfinance.

USSOCOM Solicits Technology for Hyper-Enabled Operator and SUAS Experimentation Candidates

Monday, August 20th, 2018

The United States Special Operations Command regularly hosts experiments intended to allow industry and academia to interact with operational personnel to identify technologies to enhance SOF capabilities.

This RFI is for TE 9-1:

Date: 5 through 9 November 2018

Themes: Hyper-Enabled Operator and SUAS

Location: Avon Park Air Force Range, FL

Experimentation Focus: The primary intent of this event is to highlight technologies that support USSOCOM’s Hyper-Enabled Operator concept and SUAS.

Technology areas to explore during the event include the following:
1 Information Edge. Ability to process data from wide array of sensor networks, communications channels, or partnered forces into information that is decision quality information.
1.1 Edge computing. Ability to derive useful information at the point of collection through sensor fusion and forwards processing without reliance on high- bandwidth, long haul communications.
1.2 Information visualization. Tailored information visualization that provides the right information, to the right element, at the right time. Includes tailored Heads Up Display (HUD), audio, haptic feedback, and predictive information management to identify and present relevant information during each phase of an operation.
1.3 Data transport with reduced vulnerability to intercept and detection, including optical and non-RF solutions.
1.4 Cross domain data access. Systems to securely run advanced data analytics across data sets on different domains.

2 Next generation Intelligence, Surveillance, Reconnaissance (ISR). Technologies of interest include the ability to:
2.1 Find, fix, finish, exploit and analyze.
2.2 Without owning the air domain.
2.3 Includes the space and/or cyber domains.
2.3.1 Exploit the cyber domain and digital patterns of life on social media to support ISR missions.
2.3.2 Includes high-altitude persistent solutions between traditional air and space.
2.3.3 Exploit the space domain to “fix and finish,” to include on-demand payloads.
2.4 Ability to exchange data with distant sensors to perform Time Difference of Arrival/Frequency Difference of Arrival geolocation.
2.5 Enabled by advanced automation advanced standoff multi-modal
biometrics, real-time sensor fusion, action detection, and “smart systems” that tailor collection focus and fidelity based on requirements.
2.6 Small, low power autonomously emplaced ground sensors capable of meshed operation and long-dwell. Tailorable sensors including electro optical, infrared, Hyper Spectral Imaging (HSI), LIDAR, electronic warfare, and others capable of contributing to biometric analysis from 200-1000 meters.
2.7 Precise time and position correlation to full motion video.
2.8 In modular payloads that permits installation across full range of SUAS in the next section.
2.9 Leveraging Human Language Technologies (HLT) to:
2.9.1 Reduce operator workload.
2.9.2 Reduce communications bandwidth requirements.
2.9.3 Increase probability of detecting specific speakers.
2.9.4 Increase effectiveness of unfamiliar languages.

3 Small Unmanned Aerial Systems.
3.1 Expeditionary ISR. Family of group 1-2 UAS’s, featuring modular
payloads, open architecture, small footprint and minimum logistics support. 4.3.1.1 Line of Sight (LOS) and beyond LOS data link.
3.1.2 Accurately locate targets.
3.1.3 Runway independent launch and recovery.
3.1.4 Two sensor capable, (e.g. high definition full motion video, electro optic/ infrared, electronic warfare, signals intelligence, HSI, LIDAR).
3.1.5 Autonomous operation, including meshed swarm capabilities.
3.1.6 Alternative power through environment (power lines, renewable, etc.).
3.2 Unmanned aerial blood delivery system. System must be vertical takeoff and landing capable (VTOL) or runway independent. USSOCOM will provide a blood surrogate for the event.
3.2.1 Systems should be capable of transporting a minimum of 10 pounds of blood.
3.2.2 The cold chain must be maintained and monitored throughout flight. Blood must be kept at 2-8 degrees Celsius from time of loading, transit, delivery, and unloading. Systems using passive cooling are preferred.
3.2.3 Consideration must be taken to minimize shock to blood payload for any proposed delivery concept.
3.2.4 System must have an operational range of 100 or more miles. Command and control of the aircraft must be maintained at all times.
3.3 Nano VTOL UAS
3.3.1 Extremely small, lightweight Nano VTOL UAS with a takeoff weight of 75 grams or below are desired with the following characteristics. 4.3.3.2 Day and night imaging capability.
3.3.3 Autonomous flight modes.
3.3.4 Indoor flight capability with augmented collision avoidance,
operator in the loop control.
3.4 Micro VTOL UAS
3.4.1 Small, lightweight micro VTOL UAS with a takeoff weight of 750
grams or below are desired with the following characteristics. 4.3.4.2 Day and night imaging capability.
3.4.3 All-weather capability.
3.4.4 Autonomous flight modes.
3.4.5 Autonomous indoor flight capability with collision avoidance. 4.3.4.6 Operation in Global Positioning System (GPS) denied environment and confined spaces (including subterranean).
3.5 Small Fixed Wing UAS
3.5.1 Hand launchable or VTOL fixed wing UAS with no launch or
recovery equipment (bungee, net, etc.) is desired with the following characteristics.
3.5.2 VTOL configurations not to exceed 3.5 kg takeoff weight. 4.3.5.3 All-weather capability.
3.5.4 Day and night imaging capability.
3.5.5 Autonomous flight modes with GPS denied capability. 4.3.5.6 Minimum of 90 minutes endurance at sea level.

4 Managed signature. Technologies of interest are those that help avoid physical detection by acoustic, thermal, radar, visual, optical, electro-magnetic, virtual, and near infrared means.
4.1 Technologies which help manage digital presence within the realm of social media.
4.2 Technologies that assist in providing resistance to biometric tracking.
4.3 Technologies that exploit publicly available information to obscure or deceive to deny information about actions and intentions.

5 Next generation Military Information Support Operations (MISO). Technologies should be operable in limited or denied connectivity environments.
5.1 UAS/drone supported broadcasts.
5.2 Linguist expertise and regional dialects.
5.3 Demographic and culturally adaptive.
5.4 Operable in multiple spectrums, e.g. microwave, IR, etc. 4.5.5 Real time feedback.
5.5.1 Biometrics and patterns of life. 4.5.5.2 Data analysis.

6 Human Performance and Biomedical. The optimization of SOF operator’s ability to perform at very high levels for long durations, process information and make the right decisions in a timely manner, while operating in extreme environments, under high levels of stress will significantly improve their operational effectiveness. SOF requires the capability for far-forward austere casualty care to sustain critically injured personnel until they can reach the next higher level of care. SOF medical personnel place a premium on medical technologies that are small, lightweight, ruggedized, modular, multi-use, and designed for operation in extreme environments. The equipment must be easy to use, require minimum maintenance, and have low power consumption. Drugs and biologics should not require refrigeration or other special handling.
6.1 Enhanced cognitive performance

The deadline for nomination package(s) is 10 September, 2018 at 12:00 Noon Eastern Time.

Future experiments include:

TE 9-2 Sensitive Site Exploitation/Hyper Enabled Operator, 25-29 March, 2019, at the Muscatatuck Urban Training Center, IN.

For full details, visit www.fbo.gov.

2018 Special Operations Forces Warrior Industry Collaboration & JSOC Capabilities and Technology Expo Solutions Event

Friday, August 17th, 2018

The Program Executive Office Special Operations Forces Warrior (PEO-SW) and Joint Special Operations Command (JSOC) will be holding “Industry Collaboration Days” on 24-25 October 2018. The purpose of this event is to provide industry with an opportunity for a focused engagement with members of PEO-SW and JSOC to share ideas that facilitate the delivery of innovative capabilities to Special Operations Forces (SOF).

SOFWIC will be held on Wednesday, October 24th, 2018 at the Tampa Marriott Westshore and the JCTE Solutions Event will be held on Thursday, October 25th, 2018 at Building 501E, MacDill AFB, FL 33621.

SOCOM is interested for a variety of technologies supplied by SSD readers. There won’t be a test, but you should expect to see formal requirements generated for many of these items.

In order of priority by commodity area:

(1) Ground Mobility
a. Drivetrain and Locking Differentials Ground Mobility Vehicle (GMV 1.1) – Technology that will allow for transaxle replacement to increase reliability.
b. Suspension/Shock technology (GMV 1.1/LTATV/GMV 1.0)
(i) Vehicle – Suspension system related upgrades/replacement to increase performance, durability, and reliability.
(ii) Occupant – Vehicle occupant technology that improves the isolation between the input from the terrain and the corresponding input to an occupant.
c. Lifecycle Cost Reduction Light Tactical All Terrain Vehicle (LTATV), Non-Standard Commercial Vehicle (NSCV), Ground Mobility Vehicle (GMV 1.0 and GMV 1.1) – Novel approaches to reduce the lifecycle costs (namely production and sustainment) associated with braking, suspension, and other vehicular systems. Current C4ISR components (antennas, mounts, cables, etc.) are expensive and long lead in nature. The Government is targeting reduced costs, improved lead times, and equivalent capability to our current SOF suite of C4ISR (LoS, SATCOM, ECMS).
d. 360 Degree Situational Awareness MRAP-All Terrain Vehicle (M-ATV) – Armored vehicles provide protection, but at the expense of situational awareness around the vehicle. Seeking an affordable, durable, and efficient solution to enable all occupants in the vehicle to have visibility around the vehicle.
e. Payload Enhancement (GMV 1.1/LTATV) – solutions that enable the vehicle to carry more payload without significantly degrading performance.
f. Tow Bars (GMV 1.1, GMV 1.0, M-ATV) – Low Cost, lightweight, rapidly attached/utilized, rugged, durable tow bars for use on the medium and heavy family of vehicles (10k-40k lbs).
g. Battery Technology (NSCV, GMV 1.1) – Mature 12 Volt battery technology for cold temp start and/or reduced size without degrading Cold Cranking Amperage or AMP hours. Mature battery technologies that can withstand cold start scenarios down to -50 F and also extend the timeline for silent watch. Reducing size, but not performance, is ideal as well. Certified for flight is required.
h. Purpose Built NSCVs (Modular Purpose Built Chassis or common purpose built drivetrain for SUVs and Trucks) – Cost effective solutions for reduced logistics or to allow vehicles that are commercial in appearance to be reset at the end of the lifecycle instead of disposed of and re-procured. This would also allow different bodies to be interchanged on a common chassis to reduce logistical costs. The concept of Purpose Built is governed by the fact that vehicles are not modified commercial vehicles, but rather purpose built vehicles with little to no reliance on commercial vehicles. Vehicles are anticipated to be designed to mimic late model vehicles typically found in central Asia (e.g., Toyota Hilux, Toyota Land Cruiser 200, and Toyota Surf); armored against ballistic threats; 10 year vehicle life (minimum); vehicle designed for one or more resets; 4 wheel drive with heavy duty brakes and suspension to accommodate gross vehicle weight; full skid plates and running boards; diesel engines; and left hand drive.
i. Enhanced Tire Technology, including both airless and other non-pneumatic solutions (GMV 1.1, LTATV) – Novel approaches addressing wheel/tire assemblies to allow for better suitability in soft soils and other asymmetrical or unconventional warfare environments. Tire technologies to allow for a broader range of environmental terrains (sand, mud, and rock), to include non-pneumatic types.
j. Light Vehicle Safety Improvements and Accessories (LTATV) – Improvements to general safety items to include (but not limited to): seating, roll cages, stability control, driver assist functions, etc.
k. Lightweight Armor (NSCV, GMV 1.1) – Novel lightweight and cost effective technologies that can replace current heavy transparent and opaque armor solutions on vehicle platforms. Heavy armor drives adverse mobility, reduced vehicle durability, and increases in related support component costs.
l. Low Cost, High Output Alternators for NSCVs – Targeting both 12V and 28V dual alternator combinations, along with high output single 12V and dual 12V solutions. The 28VDC alternator shall have a minimum of 130A (at 28VDC) output (80A at idle) and shall fit within the current engine compartment. Any single high-output alternator shall have a minimum 260 Amp (12 Volt DC) output rating at idle and engine operating temperature of 220 degrees F. The purpose of this Request for Information (RFI) is to determine the availability of solutions to replace the existing package within NSCVs, allowing flexibility for future growth, and to clear real estate in the engine compartment if we can achieve our requirements with a lower cost and smaller solution.
m. Driver Cognitive Workload Reduction (LTATV/GMV 1.1) – means of reducing driver cognitive workload in lone driving, or convoy driving situations up to and including solutions that eliminate the need for a driver altogether.

(2) Visual Augmentation Systems (VAS):
a. Signature Reduction technologies for Targeting Laser (Out of Band and Notional Laser) – Laser designation technologies that are able to be perceived through typical and widely fielded Image Intensification technologies. Notional laser could exist only in virtual reality and be perceived through an integrated augmented reality display inside an eyepiece of Night Vision Goggles (NVG).
b. Head-mounted Devices- Looking for weight saving technologies or novel methods to move weight off of the head.
c. Hand Held Devices- Seeking size, weight, and power enhancements on handheld VAS commodities.
d. Weapon Mounted Devices Seeking size, weight, and power enhancements on weapon mounted VAS commodities.
e. Power management, virtual reality (portable).

(3) Ammunition and Weapon Systems (A&W):
a. Signature reduction for Small Arms- Sound, Flash, and Thermal.
b. Machine Gun Suppressor capable of surviving high volume/rate of fire.
c. Intermediate Caliber (.338NM) – Long Range Machine Gun 2000m to include new tripod, long range- ruggedized optics, and polymer ammunition.
e. 6.5mm Sniper Support Rifle.
f. 6.5mm Assault Machine Gun.
g. Suppressor for MK27 Gen 4.
h. Thermal Beacon Technologies (Mid Wave Thermal Spectrum) range >10NM.
i. Precision Variable powered optics capable of acquiring targets at 50-1500m and beyond.
j. Precision Aiming laser with built in range finding (up to 2000m), ballistics, and environmental sensing capable of blue tooth and Near field communications.
i. Organic Strike Assets capable of providing precision fires on ranged targets (1k-50k).

(4) Soldier Protection, Survival, and Equipment Systems (SSES):
a. Armor – Novel technologies and designs that decrease weight while increasing level of protection.
b. Lightweight Rifle Protection Ballistic Helmet – Current lightweight ballistic helmets are limited to 9mm and fragmentation protection due to the weight required to achieve rifle protection. Seeking lightweight ballistic helmet that defeats the 7.62x39mm MSC projectile at muzzle velocity.
c. Special Operations Eye Protection – Laser protection (visible and IR); ability for a single lens to adapt to various lighting conditions near instantaneously.
d. Extremity Protection for Extreme High Altitude – Airborne operations are conducted at extreme high altitudes with air temps below -40 C. These temps can lead to vasoconstriction in the extremities. Seeking active heating capabilities to reduce likelihood of vasoconstriction and maintain dexterity during these airborne operations and throughout all phases of the mission.
e. Logistics – FIAR compliant internet accessible web application (certified mixed/feeder system) for the Special Operations Forces Personal Equipment Advanced Requirements (SPEAR) program capable of property accountability, warehouse management, logistics/supply functions, financial, and personnel management data to include the conversion of measurements to sizes using an approved algorithm for Special Operations Forces-Peculiar (SO-P) individual equipment. Integration with the United States Special Operations Command (USSOCOM) logistics enterprise is mandatory.

(5) Tactical Combat Casualty Care Medical Systems (TCCC):
a. Novel FDA approved technologies that apply to individual casualty care and casualty evacuation.
b. Active Cooling and Heating Whole Blood Storage Container – As SOF medics transition from crystalloid and colloid to whole blood for traumatic hemorrhagic resuscitation they are facing major logistical challenges due to the limited temperature range for storing and transporting whole blood far forward on the battlefield. Seeking portable active cooling and heating storage container capable of holding 1-2 units of blood within the FDA regulation temperature range for 4-5 days. The light weight container should be small enough to fit inside of or attached to the current USSOCOM Medic Aid Bag and be powered by standard commercial batteries commonly found in a deployed environment.
c. Handheld Battlefield Ultrasound – SOF medics have a requirement for a handheld ultrasound device capable of use in a battlefield environment. Due to the space and weight limitations within the Special Operations medical aid bag, the battlefield ultrasound should be limited to a single universal transducer which can be used for a range applications. The single universal transducer must be durable enough for the battlefield environment and able to function on the Android operating system.

(6) Electronic Counter Measures (ECM):
a. Increased battery power density providing the same equipment operating life at a size/weight reduction of up to 50%.
b. High performance multi-band antennas that can be used for electronic countermeasures systems, communications systems, and other functions while reducing SWAP on platforms/operators.

(7) Counter – Unmanned Aerial Systems (C-UAS):
a. Passive radar – radar detection that operates in a passive/promiscuous mode rather than active emitting. Ability for multiple/simultaneous detections.
b. Auto Pilot detection – detection of non-RF telemetry like Pixhawk, Mavlink, etc. autopilot drone modes. Small, lightweight, low power solutions.
c. Detection – detecting drones using LTE cellular technology.
d. Kinetic Defeat – small, lightweight kinetic/hard kill solutions.

(8) Find, Fix, Finish, Exploitation, and Analyze Capabilities (F3EA).

Interested parties must respond by Aug 31, 2018 5:00 pm Eastern. Visit www.fbo.gov for full details.

Trijicon Awarded $7.6 Mil for USSOCOM Miniature Aiming System – Day Optics Program

Thursday, August 16th, 2018

USSOCOM has selected the Trijicon solution for their Miniature Aiming System – Day Optics Program. Under MAS-D, there are four different systems: Handgun Reflex Sight, Close Quarters Sight, Squad Variable Power Scope and Precision Variable Power Scope.

This award is for the Handgun Reflex Sight (HRS), which is designed for rapid day and night pistol target engagements. It incorporates an illuminated dot or shape imposed on a Wide Field of View (WFOV) lens to increase the speed of target acquisition when maneuvering in confined spaces, or in extremis if the primary weapon malfunctions.

With Trijicon winning it is based on their RMR Type 2 and will assuredly be mounted to SOCOM’s Glock 19s.

The RMR’s Aiming Dot features eight adjustable brightness settings including 2 NV and 1 super bright. It’s powered by a CR2032 battery which lasts up to 4 years at a brightness setting of 4 out of 8. Additionally, it automatically adjusts to ambient lighting conditions after 16.5 hours and there is a lockout feature for the buttons. It is also waterproof to 20m.

Trijicon Inc., Wixom, Michigan,* is awarded a $7,626,587 firm-fixed-price, indefinite-delivery/indefinite-quantity contract with a five-year ordering period for handgun reflex sights for the miniature aiming system – day optics program. The handgun reflex sight is a low profile, wide field of view, passive sight for rapid day and night pistol target engagements in confined spaces, while prisoner handling, or in extremis after the primary weapon malfunctions. Work will be performed in Wixom, Michigan, and is expected to be completed by August 2023. Fiscal 2018 defense procurement funding in the amount of $1,158,052 will be obligated at the time of award and funds will not expire at the end of the current fiscal year. The contract was competitively procured via the Federal Business Opportunities website, with three offers received.  The Naval Surface Warfare Center, Crane Division, Crane, Indiana, is the contracting activity (N0016418DJQ25).

The award was decided on best value. SOCOM plans to field over 14,000 of these optics to its various components.

First Look – USSOCOM’s New Suppressed Upper Receiver Group (SURG) from SIG SAUER

Thursday, August 2nd, 2018

Late last week, the United States Special Operations Command announced they had awarded SIG SAUER a $49 million contract for Suppressed Upper Receiver Groups for the M4A1 weapon.

Here is the first photograph of the SURG in the wild. The SURG components are mounted to a generic AR-style lower receiver.

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Based on the SOCOM requirement, SURG includes a 5.56mm NATO upper receiver group (URG) composed of upper receiver, barrel, operating system assembly and bolt/carrier assembly along with a sound suppressor (may be integral with barrel), operators manual and maintenance manual. In addition to the URG itself, candidate systems could include a folding stock if the operating system didn’t require use of the lower receiver extension, buffer and action spring.

As we can see here, SIG went a different direction than most and used an MCX piston driven upper with detachable suppressor and an MCX folding stock. As part of SURG, SOCOM will receive the folding stock and knuckle adapter for use with existing M4A1 lowers. The suppressor is covered with some sort of aramid-based mesh to protect the hand of the operator. When you get to the performance specs below, you’ll understand why this is so significant.

I’m now going to go over some of the requirements for SURG so you can see how SIG (and the other candidates) had to perform to win this solicitation.

SOCOM stipulated that SURG could be no more than 25.5 inches in length but that they preferred a system that was no more than 21.0 inches. The barrel has to be at least 11.5 inches in length and the weapon can’t weigh more than 7.0 pounds, but the preferred weight is just 4.5 pounds. It also needed to be Coyote 498 in color.

The real meat of the requirement is in the suppressor performance. First off, a SURG equipped M4A1 has to be optimized to fire the M855A1 and the MK318 MOD0 / MOD1 cartridges and be able to do so reliably for at least 1200 rounds without lubrication. Obviously, they also didn’t want anything that could vibrate loose. While the suppressor must be rebuildable, only one component of the suppressor has to be serialized but that part had to last the lifetime of an M4A1 lower receiver (125,000 rounds). The rebuildable components need to last at least 15,000 rounds but SOCOM further challenged industry to make them last for 20,000 rounds.

Additionally, a SURG equipped M4A1 shall not exceed 140 dB ten shot average sound pressure level at shooter’s ear during barrel life minimum (15,000 rounds).

In the past I’ve mentioned the so-called SOCOM suppressor torture or stress test. The SURG equipped M4A1 has to withstand at least 6 complete cycles of the firing schedule seen below below using MK318 MOD0 / MOD1 ammunition with SURG allowed cooling to 120°F after each cycle. However, SOCOM was hoping to complete 20 cycles.

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The weapon firing MK318 MOD1 for 5 groups of 10 rounds each suppressed, has to average over the 5 groups no more than 1.50 MOA Extreme Spread (ES) beyond the ammunition Lot Acceptance Test (LAT) average ES at 300 yards. Also, it has to maintain a maximum ES Average of 1.50 MOA over LAT using MK318 MOD0 / MOD1 ammunition from 0 to 10,000 rounds fired.

In addition to that stress test, SURG has to prevent operator contact or sustained contact burns from the suppressor (or equivalent) through 1 layer of standard military duty uniform material after firing 210 rounds in 7 minutes at a rate of 1 round every 2 seconds ± 0.2 seconds. A contact burn will be defined as a peak temperature over 160°F in 1 second of contact. A sustained contact burn will be defined as a peak temperature over 160°F in 5 seconds of contact.

These stringent requirements, combining suppression, reliability, accuracy service life, and operator protection were very challenging for industry. It took three tries at bat for the SURG program to finally select a system. In the two earlier attempts, none of the systems could meet all of the program’s objectives. Kudos to SIG for putting together a winning system.

Panteao Releases Remastered Battle of the Black Sea Video

Tuesday, July 31st, 2018

Columbia, SC, July 30, 2018 – Panteao is happy to announce the release of the newly remastered 25th anniversary edition of Battle of the Black Sea.

In this three hour exclusive interview, MSG Paul Howe (US Army retired) gives an in-depth look at what led up to and what occurred during and after the battle in Mogadishu on October 3 and 4, 1993. He talks about the living conditions soldiers endured in Mogadishu, the UN Joint Forces stationed there, the media, decisions that were made by our military, the search for Aidid, planning for the mission, the mission assets, Operation Gothic Serpent including the downed Black Hawks, the convoy, staying overnight, and the extraction the next day. Paul also talks about the After Action Report, lessons learned by our military from that battle, combat mindset, and Somalia today. Paul sets the story straight and gives an unvarnished account of what took place in Somalia in 1993.

The video can be watched online via a PC or Mac, on a smartphone or tablet using the Panteao Make Ready Android and iTunes apps, or on television with the Panteao Make Ready channel on Roku, Amazon Fire TV and Apple TV. For more information on how to stream the Panteao videos, visit: panteao.com/streaming-video-ways-to-watch

The SD and HD Digital Downloads and DVD version of the video are also available. For more information on this title, visit Panteao at: panteao.com/product/the-battle-of-the-black-sea

USSOCOM Awards SIG SAUER $48 Mil for Suppressed Upper Receiver Group

Sunday, July 29th, 2018

The Department of Defense has announced that USOCOM selected SIG SAUER to provide SURG.

Sig Sauer Inc., Newington, New Hampshire, was awarded a $48,000,000 five-year, indefinite-delivery/indefinite-quantity, firm-fixed-price contract for the acquisition of the Suppressed Upper Receiver Group (SURG).  The SURG weapon is an upgrade of the M4A1 lower receiver group in support of U.S. Special Operations Command (USSOCOM) Procurement Division.  Fiscal 2018 procurement funds in the amount of $24,620 are being obligated at the time of award.  The majority of the work will be performed in Newington, New Hampshire, and is expected to be completed by July 2023.  This contract was awarded through full and open competition.  USSOCOM headquarters, MacDill Air Force Base, Florida, is the contracting activity (H92430-18-D-0005).

SURG is a 5.56mm, integrally suppressed upper receiver. Despite assertions to the contrary on other websites, this is not a SIG Rattler kit.

However, there an entirely different program to offer a Personal Defense Weapon upper in .300. Earlier this year, SOCOM purchased a handful of SIG upper receiver systems to inform the requirement. Expect SOCOM to release a solicitation in FY19.

SURG asked industry to keep the handguard cool enough to handle even after firing the SOCOM suppressor torture test with M855A1. Several companies took up the challenge but experienced various issues.

TSgt John Chapman to Posthumously Receive Medal Of Honor for Actions During Battle of Takur Gar

Saturday, July 28th, 2018

HURLBURT FIELD, Fla. (AFNS) — The White House announced July 27, 2018, that Air Force Tech. Sgt. John Chapman will be posthumously awarded the Medal of Honor Aug. 22, for his extraordinary heroism during the Battle of Takur Ghar, Afghanistan, in March 2002.


According to the Medal of Honor nomination, Chapman distinguished himself on the battlefield through “conspicuous gallantry and intrepidity,” sacrificing his life to preserve those of his teammates.

Making it look easy

Chapman enlisted in the Air Force Sept. 27, 1985, as an information systems operator, but felt called to be part of Air Force special operations. In 1989, he cross-trained to become an Air Force combat controller.

According to friends and family, Chapman had a tendency to make the difficult look effortless, and consistently sought new challenges. Dating back to his high school days, he made the varsity soccer squad as a freshman. Also an avid muscle-car enthusiast, he rebuilt and maintained an old Pontiac GTO.

Combat control would prove to be another instance of “making it look easy.”

Combat control training is more than two years long and amongst the most rigorous in the U.S. military. Only about one in ten Airmen who start the program graduate.

From months of rigorous physical fitness training to multiple joint schools – including military SCUBA, Army static-line and freefall, air traffic control, and combat control schools – Chapman is remembered as someone who could do anything put in front of him.

“One remembers two types of students – the sharp ones and the really dull ones – and Chapman was in the sharp category,” said Ron Childress, a former Combat Control School instructor.

Combat Control School is one of the most difficult points of a combat controller’s training program, from completing arduous tasks without sleeping for days, to running miles with weighted rucksacks and a gas mask.

“During one of his first days at Combat Control School, I noticed a slight smirk on his face like [the training] was too simple for him…and it was,” said Childress.

Following Combat Control School, Chapman served with the 1721st Combat Control Squadron at Pope Air Force Base, North Carolina, where he met his wife, Valerie, in 1992. They had two daughters, who were the center of Chapman’s world even when he was away from home – which was common in the combat control career field.

“He would come home from a long trip and immediately have on his father hat – feeding, bathing, reading and getting his girls ready for bed,” said Chief Master Sgt. Michael West, who served with Chapman through Combat Control School, a three-year tour in Okinawa, Japan, and at Pope AFB. “They were his life and he was proud of them…to the Air Force he was a great hero…what I saw was a great father.”

The Battle of Takur Ghar

In conjunction with Operation Anaconda in March 2002, small reconnaissance teams were tasked to establish observation posts in strategic locations in Afghanistan, and when able, direct U.S. air power to destroy enemy targets. The mountain of Takur Ghar was an ideal spot for such an observation post, with excellent visibility to key locations.

For Chapman and his joint special operations teammates, the mission on the night of March 3 was to establish a reconnaissance position on Takur Ghar and report al-Qaida movement in the Sahi-Kowt area.

“This was very high profile, no-fail job, and we picked John,” said retired Air Force Col. Ken Rodriguez, Chapman’s commander at the time. “In a very high-caliber career field, with the highest quality of men – even then – John stood out as our guy.”

During the initial insertion onto Afghanistan’s Takur Ghar mountaintop on March 4, the MH-47 “Chinook” helicopter carrying Chapman and the joint special operations reconnaissance team was ambushed. A rocket propelled grenade struck the helicopter and bullets ripped through the fuselage. The blast ripped through the left side of the Chinook, throwing Navy Petty Officer 1st Class Neil Roberts off the ramp of the helicopter onto the enemy-infested mountaintop below.

The severely damaged aircraft was unable to return for Roberts, and performed a controlled crash landing a few miles from the mountaintop. Thus began the chain of events that led to unparalleled acts of valor by numerous joint special operations forces, the deaths of seven
U.S. servicemen and now, 16 years later, posthumous award of the Medal of Honor to Chapman.

Alone, against the elements and separated from his team with enemy personnel closing in, Roberts was in desperate need of support. The remaining joint special operations team members, fully aware of his precarious situation, immediately began planning a daring rescue attempt that included returning to the top of Takur Ghar where they had just taken heavy enemy fire.

As the team returned to Roberts’ last-known position, now on a second MH-47, the entrenched enemy forces immediately engaged the approaching helicopter with heavy fire.

Miraculously, the helicopter, although heavily damaged, was able to successfully offload the remaining special operations team members and return to base. Chapman, upon exiting the helicopter, immediately charged uphill through the snow toward enemy positions while under heavy fire from three directions.

Once on the ground, the team assessed the situation and moved quickly to the high ground. The most prominent cover and concealment on the hilltop were a large rock and tree. As they approached the tree, Chapman received fire from two enemy personnel in a fortified position. He returned fire, charged the enemy position and took out the enemy combatants within.

Almost immediately, the team began taking machine gun fire from another fortified enemy position only 12 meters away. Chapman deliberately moved into the open to engage the new enemy position. As he heroically engaged the enemy, he was struck by a burst of gunfire and became critically injured.

Chapman regained his faculties and continued to fight relentlessly despite his severe wounds. He sustained a violent engagement with multiple enemy fighters, for over an hour through the arrival of the quick reaction force, before paying the ultimate sacrifice. In performance of these remarkably heroic actions, Chapman is credited with saving the lives of his teammates.

The upgrade to MOH

“John was always selfless – it didn’t just emerge on Takur Ghar – he had always been selfless and highly competent, and thank God for all those qualities,” said Rodriguez. “He could have hunkered down in the bunker and waited for the (Quick Reaction Force) and (Combat Search and Rescue) team to come in, but he assessed the situation and selflessly gave his life for them.”

Chapman was originally awarded the Air Force Cross for his actions; however, following a review of Air Force Cross and Silver Star recipients directed by then-Secretary of Defense Ash Carter, the secretary of the Air Force recommended Chapman’s Air Force Cross be upgraded to the Medal of Honor.

In accordance with Air Force policy whereby Medal of Honor recipients are automatically promoted one grade on the first day of the month following the award, Chapman will be posthumously promoted to the rank of master sergeant on Sept. 1, 2018.

Although Chapman will be awarded the Medal of Honor, family and friends have expressed his humility and how he would react today, if he were here.

“If John were to find out he received the Medal of Honor, he would be very humbled and honored,” said Chief Master Sergeant West. “He was just doing his job, and that’s what he would say at this moment.”

His widow, Valerie Nessel, has always known her husband was capable of such greatness, but asserts that John wouldn’t be anxious to be in the spotlight.

“[John] would want to recognize the other men that lost their lives,” said Valerie. “Even though he did something he was awarded the Medal of Honor for, he would not want the other guys to be forgotten – that they were part of the team together.”

“I think he would say that his Medal of Honor was not just for him, but for all of the guys who were lost,” she added.

In total, seven service members lost their lives during the Battle of Takur Ghar:
Petty Officer 1st Class Neil Roberts – U.S. Navy SEAL
Tech. Sgt. John Chapman – U.S. Air Force combat control
Senior Airman Jason Cunningham – U.S. Air Force pararescue
Cpl. Matthew Commons – U.S. Army Ranger
Sgt. Bradley Crose – U.S. Army Ranger
Spc. Marc Anderson – U.S. Army Ranger
Sgt. Philip Svitak – U.S. Army 160th Special Operations Aviation Regiment

“John would have, so I’ll say it for him. Every American who set foot on that mountaintop acted with great courage and selflessness, and deserves all of our praise and admiration for the sacrifices they made,” said Rodriguez.

By Staff Sgt. Ryan Conroy, 24th Special Operations Wing Public Affairs