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Archive for the ‘PEO-Soldier’ Category

US Army Improved Hot Weather Combat Uniform

Thursday, October 19th, 2017

If you’re a Soldier, a new jungle uniform is in your future. The Army has developed an Improved Hot Weather Combat Uniform (IHWCU) for use in hot-wet environments and is working to put it into production.

The two-piece ensemble consists of a Coat and Trouser printed in the Operational Camoufiage Pattern. So far, prototypes have been made from Invista’s Cordura NYCO fabric, a 57/43 blend, which is lighter, faster drying and more breathble than the ACU’s 50/50 NYCO. However, other fabrics are currently under evaluation.

Coat, Improved Hot Weather Combat Uniform


IHWCU worn by CPT Daniel Ferenczy, APM for Extreme Weather Clothing and Footwear, PM-SPIE, PEO Soldier

Features:
-single-breasted
-raglan sleeve front with a five (5) button closure
-a fold down collar with a fusible interlining
-long sleeves with cuffs and one (1) button, three (3) buttonholes adjustable cuff tab
-The top of the button down closure is open to accommodate a pen
-front has loop tape to accommodate the Name and US Army Tape
-front placket has a loop tape for the Rank Patch
-coat has two (2) bellow style top opening upper sleeve pockets and includes an eyelet drain-hole
-sleeves have an elbow reinforcement patch
-Both sleeves have an Identification Friend or Foe tab cover that can be opened and closed using hook and loop fastener
-IFF tab cover is centered and sewn onto the sleeve above the upper sleeve pocket
-double turned and cleaned finished hem

Trousers, Improved Hot Weather Combat Uniform

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(Rear of the IHWCU Trouser, showing the cargo and lower leg pocket layout.)

Features:
-covered fly with a four (4) button/ buttonhole closure, or three (3) button/buttonhole closure, depending on size
-seven (7) belt loops
-two (2) side hanging pockets
-two (2) front side pleated cargo pockets with three (3) button/ two (2) buttonhole closure flaps
-high end of cargo pockets at front of pocket rather than rear like ACU
-two (2) lower leg side pockets with one (1) button/ one (1) buttonhole closure flaps
-side cargo pockets shall have three (3) sewn-in eyelets hidden by the bellows
-double needle seat patch and a pleated knee reinforcement incorporated into the pant leg at the knee
-one (1) piece single gusset
-two (2) front side hanging pockets
-mesh fabric attached on the inside of the trousers at the bottom of the legs as inner cuffs
-bottom of the trousers leg hems, the inner cuffs, and the waistband shall have drawstrings

Right now, Natick has issued an RFI to industry in order to identify manufacturers for up to 150,000 sets of the new uniform. However, that number could drastically increase depending on whether the Army decides to make the IHWCU an optional wear item or solely Organizational Clothing & Individual Equipment (OCIE) issue.

AUSA – Prototype Pinks and Greens

Monday, October 9th, 2017

At AUSA PEO Soldier is demonstrating a prototype World War Two Pinks and Greens-style service dress uniform.

SGT Schacher and SFC Johnson wear prototypes of male and female versions of the uniform. This is only a prototype, intended to solicit feedback and there is currently no requirement for a new Service uniform. However, if this concept is adopted by the Army, the final uniforms will be different.

Here, SFC Johnson shows us the Class B Shirt. I’m very impressed by the work the uniform’s designers have done to research historical uniform items and adapt the styles to reflect modern tastes and materials.

What do you think?

US Army’s PEO Soldier, BG Cummings, Speaks Out On 7.62mm Rifle Efforts 

Sunday, October 8th, 2017

7D1AC0D0-1C97-4ABD-A261-661A9D063FB5In an October 3rd Army News Service article, BG Brian Cummings, who serves as Program Executive Officer Soldier, discusses the Army’s on-again-off-again efforts to identify and field a 7.62 rifle capability.

Reading the extract below, it seems that wires have been crossed somewhere. BG Cummings makes it sound like the Interim Combat Service Rifle effort is still underway. However, we, and others, reported several weeks ago it had been cancelled. Additionally, Deputy Director of the Lethality Branch at the Army’s Maneuver Center of Excellence Matt Walker (CSM, Ret), verified just last week, that they have ceased work on what he now describes as an “evaluation” despite it being issued as a solicitation.

As we posted on September 22nd, the M110A1 Compact Semi Auto Sniper System is still underway, although unfunded, and the directed requirement to field a Squad Designated Marksman variant of the H&K G28, also remains underway.

Without the ~50,000 ICSRs which would have been fielded, the Army will have to rely on the limited number of CSASS/SDMR procured in order to deal with the body armor threat Chief of Staff of the Army, GEN Mark Milley testified about in front of the Senate Armed Services Committee, earlier this year.

Below is the pertinent section of that Army News Service article.


STILL ON TARGET FOR NEW RIFLE

Despite some reports to the contrary, the Army is still looking for a new rifle that uses a 7.62mm cartridge.

“The chief [U.S. Army Chief of Staff Gen. Mark A. Milley] wanted an interim combat rifle, or he was only going to fulfill a requirement to have a squad-designated marksman in each squad, called a squad-designated marksman rifle,” Cummings said. “So, there are two efforts going on to get a 7.62 inside the squad.”

What are those two efforts? Cummings said that course of action No. 1 is to have one Soldier in a squad carrying the Squad-Designated Marksman Rifle, or SDMR. Course of action No. 2, he said, is to have multiple Soldiers in a squad with the Interim Combat Service Rifle, or ICSR. Both are 7.62mm weapons.

The SDMR is already a program of record for the Army, Cummings said, and there is a weapon already identified to fill that role: the M110A1 Compact Semi-Automatic Sniper System, or CSASS. That weapon is undergoing testing now, Cumming said.

But the ICSR and the SDMR do not represent the future for what weapons will be issued to most Soldiers.

“Right now, many are focused on the ICSR or SDMR,” Cummings said. “But that’s not the long-term way ahead. The long-term way ahead is a brand new rifle for all of the Department of Defense called the Next Generation Squad Weapon.”

The Next Generation Squad Weapon, or NGSW, is actually two weapons, he said. It will include one rifle to replace the M249 Squad Automatic Weapon, and then a carbine that replaces the M4. Both the M249 and the M4 use the 5.56mm cartridge. The NGSW will likely use a different caliber cartridge than 5.56mm.

“For the next-generation, we wanted to make one end-all solution,” Cummings said. “With the M4, when you look at it, it’s got all these things hanging on top of it. We keep evolving by putting on things. The next-generation is going to be kind of like what we did with the pistol, with the modular handgun system. It’ll be one complete system, with weapon, magazine, ammo and fire control on it and we will cut down on the load and integration issues associated with it.”

The general said the U.S. Marine Corps is “on board” with development of the NGSW, and the British are interested as well.

Cummings said the Army can expect to start seeing the Next Generation Squad Weapon by 2022, in about five years. That will include the weapon, magazine and bullet. Later, by 2025, he said, Soldiers can expect to see a fully-developed fire-control system.

Until then, Cummings said, the Army is working on an interim solution to get a larger-caliber rifle into the hands of at least some Soldiers. It’ll either be the SDMR in the hands of one Soldier, or the ICSR in the hands of some Soldiers. But, he said, “the final decision has not been made.”

US Army Leverages Foreign Comparative Testing To Procure M3E1 Carl Gustavs

Thursday, September 7th, 2017

ABERDEEN PROVING GROUND, Md. — Used on battlefields around the world since 1991, the M3 Multi-Role Anti-Armor Anti-Personnel Weapon System, or MAAWS, has seen several iterations.

The latest version, or M3E1, is not only lighter, but shorter and ergonomically designed with a longer handle and better grips. These features, as well as its ability to use multiple types of rounds for firing, has led the Army to approve a requirement for 1,111 M3E1 units.

“The current system that the Army uses is the AT4, which only allows Soldiers to fire one shot, and then they have to throw the system away. With the M3E1, Soldiers can use different types of ammunition which gives them an increased capability on the battlefield,” said Randy Everett, Foreign Comparative Testing, or FCT, project manager.

The M3E1 is part of the Product Manager Crew Served Weapons portfolio, which is processing a contract to procure 1,111 M3E1s and an Urgent Material Release to field them as soon as possible.

The U.S. Army FCT program office, which is positioned within U.S. Army Research, Development and Engineering Command, receives oversight from the Office of the Secretary of Defense’s Comparative Technology Office. The FCT program provides an avenue for Army engineers, scientists and program managers to test and evaluate items and technologies from allies and other friendly nations that may fill an Army capability gap.

The program encourages international cooperation and helps reduce the DOD’s overall acquisition costs by providing funds to formally test and evaluate foreign non-developmental items, commercial-off-the-shelf items, or technologies which are in the late state of development that may satisfy U.S. military requirements.

In 1988, U.S. Special Forces identified a need for a shoulder-fired, recoilless rifle to replace the M67, and Saab Dynamics developed the M3, which was a likely candidate to address the need. It was through the FCT program that the first M3s were delivered to U.S. Rangers and U.S. Navy Seals in 1994.

Kevin Finch, MAAWS product director, has worked on the M3 program throughout the years, collaborating with Saab Dynamics AB, the Swedish vendor, to perfect their system.

According to Soldier feedback, the M3 was too heavy and bulky. By using titanium, the updated M3E1 is more than six pounds lighter. The M3E1 is also 2.5 inches shorter and has an improved carrying handle, extra shoulder padding and an improved sighting system that can be adjusted for better comfort without sacrificing performance.

In response to the new requirement, a wiring harness was included in the M3E1 configuration that provides a foregrip controller and programmable fuze setter for an interchangeable fire control system. For added safety and cost savings, an automatic round counter enables Soldiers and logisticians to accurately track the service life of each weapon.

The system was tested for gun tube safe service life at IMT Materialteknik AB in Sundsvall, Sweden by the U.S. Army Test & Evaluation Command and other subject matter experts. Testing at the vendor’s test facility in Sweden eliminated the need to purchase ammunition and material, and it limited range time in the U.S., saving the Army nearly one million dollars.

The M3E1 uses the same family of ammunition as the M3, which has already been successfully tested.

As a result of this project, the Army received the OSD award for the FCT program. Click here to read the article.

“Our original investment of $3 million has led to an approximate $40 million procurement for the Army, which is a great return on investment. But, most importantly, the M3E1 can be reused so it gives Soldiers increased flexibility and capability on the battlefield,” Everett said.

For more information on the FCT program, visit cto.acqcenter.com.

US Army Paratroopers Testing Airborne Tactical Assault Panel 

Monday, September 4th, 2017
The Airborne Tactical Assault Panel (ABN-TAP) rigging configurations. (Photo Credit: Photo courtesy of PEO Soldier)

The Airborne Tactical Assault Panel (ABN-TAP) rigging configurations. (Photo Credit: Photo courtesy of PEO Soldier)

Fort Bragg, North Carolina — For the first time since their inception, Army Airborne forces will soon be fielding a new fighting load system tailored to the paratrooper’s unique requirements.

“The Airborne Tactical Assault Panel (ABN-TAP) was developed with the paratrooper in mind and will allow the paratrooper a greater degree of comfort, mobility and safety during static line airborne infiltration operations,” said Rich Landry of the U.S. Army Soldier Systems Center laboratories in Natick, Massachusetts.

Rich Landry of the U.S. Army Soldier Systems Center laboratories in Natick, Massachusetts, demonstrates key design features included in the Airborne Tactical Assault Panel (ABN-TAP) based on Soldier input. (Photo Credit: Photo courtesy of Natick Research laboratories)

Rich Landry of the U.S. Army Soldier Systems Center laboratories in Natick, Massachusetts, demonstrates key design features included in the Airborne Tactical Assault Panel (ABN-TAP) based on Soldier input. (Photo Credit: Photo courtesy of Natick Research laboratories)

Typical Airborne troops say the legacy load carrier systems have some drawbacks.

Previous designs must be worn under the T-11 parachute harness, which is less than optimal because it does not allow for a proper fit of the main parachute harness, and moves the T-11 reserve activation handle further away from the paratrooper’s grasp.

ABN-TAP enables Soldiers to rig the fighting load under the parachute harness but below the reserve parachute.

Soldiers from the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, assemble the Airborne Tactical Assault Panel (ABN-TAP) during New Equipment Training at Fort Bragg, North Carolina, before putting it through operational testing. (Photo Credit: Jim Finney, Combined Technical Services, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

Soldiers from the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, assemble the Airborne Tactical Assault Panel (ABN-TAP) during New Equipment Training at Fort Bragg, North Carolina, before putting it through operational testing. (Photo Credit: Jim Finney, Combined Technical Services, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

“This will allow paratroopers to properly adjust the T-11 parachute harness to their specific sizing requirements and keep the T-11 reserve parachute handle well within reach,” said Sgt. 1st Class Ian Seymour, Test NCO from the Airborne and Special Operations Test Directorate (ABNSOTD) here.

The ABN-TAP design actually draws its lineage from the older Load Bearing System (LBE) used with the T-10 and MC1-1 parachute systems by paratroopers for decades.

Soon after the Global War on Terror began, all branches of the armed services rushed to modernize field equipment to meet the rigors of modern combat and allow for the constant presence of body armor, according to Mike Tracy, deputy test division chief at ABNSOTD.

“With the vest/plate carrier systems seeing overwhelming Soldier acceptance, the task of providing the paratrooper with a modern design compatible with current parachute systems is challenging to say the least,” Tracy said.

Paratroopers assigned to the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, Fort Bragg, N.C., practice "buddy rigging" the Airborne Tactical Assault Panel (ABN-TAP) at the 82nd Airborne Division Advanced Airborne School during New Equipment Training. (Photo Credit: Michael Zigmond, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

Paratroopers assigned to the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, Fort Bragg, N.C., practice “buddy rigging” the Airborne Tactical Assault Panel (ABN-TAP) at the 82nd Airborne Division Advanced Airborne School during New Equipment Training. (Photo Credit: Michael Zigmond, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

The ABN-TAP bridges this gap by providing both new and old capabilities to the paratrooper.

Tracy explained that ABN-TAP allows not only for rigging under the parachute harness and reserve, but can be rapidly adjusted to serve as a “chest rig” design upon landing.

“Ground troops consider this to be the most efficient design under current operational conditions,” said Tracy.

“Operational testing using Airborne paratroopers, collects data which truly allows the Army to evaluate the suitability and safety of the ABN-TAP when worn during static line Airborne operations and follow-on missions,” Tracy said.

Before testing Soldiers participated in New Equipment Training (NET), which included familiarization with the system, fitting and proper rigging of the ABN-TAP with the T-11 parachute system.

Following NET, Soldiers conducted live parachute jumps from a C-17 high performance aircraft at 1,250 feet above ground level over Sicily Drop Zone here.

More senior Soldiers participating in testing were optimistic about the proposed rigging procedures.

“Having jumped the LBE system earlier in their careers, this proven rigging method signals a simple approach to a complex problem,” said Leon Price, senior ABNSOTD test officer.

“I think I benefitted personally by being a part of this,” said Spec. Aaron Adams, a Combat Engineer with the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade. “I enjoyed participating in the testing because it allowed me to provide direct input into the test and I will get to see it once it is fielded to the Airborne force.”

“Any time Soldiers and their leaders get involved in operational testing, they have the opportunity to use, work with, and offer up their own suggestions on pieces of equipment that can impact development of systems that future Soldiers will use in combat,” said Col. Brad Mock, the director of all the Army’s Airborne testing.

Upon completion of testing, the ABN-TAP could potentially be issued to Army Airborne forces worldwide, signaling the first steps in modernizing the combat loads of thousands of paratroopers.

~~

The U.S. Army Operational Test Command is based at West Fort Hood, Texas, and its mission is about making sure that systems developed are effective in a Soldier’s hands and suitable for the environments in which Soldiers train and fight. Test units and their Soldiers provide feedback, by offering input to improve upon existing and future systems with which Soldiers will ultimately use to train and fight.

The Fort Bragg, North Carolina-based ABNSOTD plans, executes, and reports on operational tests and field experiments of Airborne and Special Operations Forces equipment, procedures, aerial delivery and air transportation systems in order to provide key operational data for the continued development and fielding of doctrine, systems or equipment to the Warfighter.

US Army Conducts Airdrop Testing Of Integrated Head Protection System

Friday, August 4th, 2017

FORT BRAGG, N.C. — Successful implementation of new body armor technology requires more than just engineers designing prototype systems in a lab. Feedback from Soldiers who will be using the technology is critical to ensuring that the U.S. Army continues to field world-class technology for its fighters.

The new Integrated Head Protection System (IHPS) is configured with mandible and visor without ballistic applique for "Rough Terrain" static line parachute jump operations. (Photo Credit: Rebecka Waller, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

The new Integrated Head Protection System (IHPS) is configured with mandible and visor without ballistic applique for “Rough Terrain” static line parachute jump operations. (Photo Credit: Rebecka Waller, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

Recently, Airborne Soldiers here played a vital part in the feedback process when they recently jumped with a groundbreaking new Integrated Head Protection System (IHPS) during operational testing.

Soldiers from the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, geared up to work with the U.S. Army Operational Test Command’s Airborne and Special Operations Test Directorate to test the new armor.

1st Lt. Christopher Lillie, assistant jumpmaster with the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, wears the new Integrated Head Protection System (IHPS) helmet with mandible, while shouting commands to position the number one jumper in the door of a C-17 aircraft. (Photo Credit: Barry Fischer, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

1st Lt. Christopher Lillie, assistant jumpmaster with the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, wears the new Integrated Head Protection System (IHPS) helmet with mandible, while shouting commands to position the number one jumper in the door of a C-17 aircraft. (Photo Credit: Barry Fischer, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

“Operational Testing is about Soldiers. It is about making sure that the systems developed are effective in a Soldier’s hands and suitable for the environments in which Soldiers train and fight,” said Col. Brad Mock, director of ABNSOTD.

The IHPS is one of the six components of the Soldier Protection System (body armor), providing a larger area of protection for the head and face, and includes a system to measure head trauma.

Soldier configured with the new Integrated Head Protection System (IHPS) without the mandible, while wearing combat equipment. (Photo Credit: Rebecka Waller, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

Soldier configured with the new Integrated Head Protection System (IHPS) without the mandible, while wearing combat equipment. (Photo Credit: Rebecka Waller, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

According to Leon L. Price, a test officer with ABNSOTD, the purpose of operational test using Airborne paratroopers is to collect data to evaluate the suitability and safety of the IHPS when worn during static line Airborne operations.

Overall, IHPS is only a little lighter than the current Army Combat Helmet, while including numerous accessories, like a mandible, visor, night vision goggle attachment device, rails and a modular ballistic applique (not attached during airborne operations).

Soldier configured with the new Integrated Head Protection System (IHPS) with the mandible, while wearing combat equipment. (Photo Credit: Rebecka Waller, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

Soldier configured with the new Integrated Head Protection System (IHPS) with the mandible, while wearing combat equipment. (Photo Credit: Rebecka Waller, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

During the test, Soldiers participated in New Equipment Training, which included familiarization, fitting, and suspended harness. All this was followed by a live parachute jump from a C-17 high performance aircraft at 1,250 feet above ground level over Fort Bragg’s Sicily Drop Zone.

“I gave fair, honest and comprehensive feedback on the IHPS helmet,” said Cpl. Samuel Emling, a Combat Engineer with the 57th. “I enjoyed the testing. The test personnel were extremely professional.”

Soldiers from the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, exit a C-17 aircraft over Sicily Drop Zone, Fort Bragg, North Carolina, while performing operational testing wearing the new Integrated Head Protection System (IHPS). (Photo Credit: Jim Finney, Combined Technical Services, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

Soldiers from the 57th Sapper Company, 27th Engineer Battalion, 20th Engineer Brigade, exit a C-17 aircraft over Sicily Drop Zone, Fort Bragg, North Carolina, while performing operational testing wearing the new Integrated Head Protection System (IHPS). (Photo Credit: Jim Finney, Combined Technical Services, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

“Soldiers and test units have the ability to impact the development of systems by training while executing doctrinally-realistic missions, and then provide direct input to the combat developer of the system,” said Lt. Col. Vinny Intini, executive officer at ABNSOTD. “Their feedback is invaluable.”

Test Manager Steve McNair, of Program Manager Soldier Protection and Individual Equipment out of Fort Belvoir, Virginia, said the Army is expected to field 7,000 systems to separate brigades during fiscal year 2018 before moving to full rate production for fielding across the force.

“I think I benefitted personally by doing this,” said Spec. Aaron Adams, another Combat Engineer with the 57th. “It helps me with being comfortable jumping with new equipment. I enjoyed participating in the testing because we were the only Airborne unit to do so.”

Soldiers participate in suspended harness training to ensure the new Integrated Head Protection System (IHPS) is suitable when performing canopy control and emergency procedures during operational testing. (Photo Credit: Michael Zigmond, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

Soldiers participate in suspended harness training to ensure the new Integrated Head Protection System (IHPS) is suitable when performing canopy control and emergency procedures during operational testing. (Photo Credit: Michael Zigmond, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

“OTC is the U.S. Army’s only independent operational test organization,” Mock added. “Any time Soldiers and their leaders get involved in operational testing, they have the opportunity to use, work with, and offer up their own suggestions on pieces of equipment that can impact development of systems that future Soldiers will use in combat.”

“Operational testing is OTC’s opportunity to contribute to readiness; anything less compromises the Army’s ability to provide the forces that fight and win the Nation’s wars,” added Intini.

Bobby Salazar, from Program Manager Soldier Protection and Individual Equipment, out of Fort Belvoir, Virginia, discusses proper fitting of the new Integrated Head Protection System (IHPS) during New Equipment Training. (Photo Credit: Michael Zigmond, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

Bobby Salazar, from Program Manager Soldier Protection and Individual Equipment, out of Fort Belvoir, Virginia, discusses proper fitting of the new Integrated Head Protection System (IHPS) during New Equipment Training. (Photo Credit: Michael Zigmond, Audio Visual Production Specialist, Airborne and Special Operations Test Directorate, U.S. Army Operational Test Command)

The U.S. Army Operational Test Command is based at West Fort Hood, Texas, and its mission is about making sure that systems developed are effective in a Soldier’s hands and suitable for the environments in which Soldiers train and fight. Test units and their Soldiers provide feedback, by offering input to improve upon existing and future systems with which Soldiers will ultimately use to train and fight.

The Fort Bragg, North Carolina-based ABNSOTD plans, executes, and reports on operational tests and field experiments of Airborne and Special Operations Forces equipment, procedures, aerial delivery and air transportation systems in order to provide key operational data for the continued development and fielding of doctrine, systems or equipment to the Warfighter.

Army to Begin Fielding New Modular Handguns in November

Tuesday, July 25th, 2017

FORT MEADE, Md. — Soldiers have many reasons to be excited about the new Sig Sauer modular handguns, which the Army will begin fielding in November, said Lt. Col. Steven Power, product manager of Soldier Weapons.

Testing of the modular handgun system, or MHS, this spring by Soldiers at Aberdeen Proving Ground, Maryland, resulted in overwhelmingly positive feedback, Power said, and 100-percent concurrence that the XM17 was an upgrade over the M9.

"That's an uncommonly positive thing," Power said, explaining that there's typically some reluctance with any new system. "Typically even in our own households, when you're buying a new car, there's things that people like about the old car better than the new one," he said.

In this case, all of the Soldiers who tested the handgun said the MHS was more comfortable to shoot and they had better confidence with it, Power said.

The first new XM17 handguns are scheduled to be fielded to the 101st Airborne Division (Air Assault) at Fort Campbell, Kentucky, in November.

The Army's versions of the Sig Sauer P320, the XM17 and XM18, have different ammunition requirements than the commercial 320 pistol, and are painted a different color. The P320 was released for commercial use three years ago.

Improved durability and adjustability over the M9, along with interchangeable grips that fit comfortably, are among the features Soldiers can look forward to with the new pistol, Power said.

The new handguns also have an external safety and self-illluminating sights for low-light conditions.

"A big reason why the modular handgun system is such a leap ahead in ergonomics is because of the modular hand grips, instead of just making a one size fits all," Power said. "The shooter will have a handgrip that fits their hand properly which does a lot to improve accuracy — not only on the first shot but also on subsequent shots."

Members of the 101st Airborne are scheduled to receive about 2,000 pistols in November. Eventually, the Army will distribute the weapons to all units over a 10-year period. From November 2017 until September 2018, the new handguns will be fielded at a different post each month, except for March and April of 2018, according to the current plan.

Power said troops from different military branches have already trained with the new handguns and tested them, but none have fielded the weapons yet. The new weapons have long been anticipated, as the M9 Beretta, first issued in 1986, is nearing the end of its serviceability.

"That's pretty dated technology," Power said of the M9. "The specific performance improvements from MHS over the M9 are in the area of accuracy, dispersion (and) ergonomics. And ergonomics isn't just about the comfort of the shooter."

A lot of the weapon's accuracy can be attributed to ergonomics, Power said, adding that human factors engineering determines how well the weapon works in a shooter's hand.

Sig Sauer earned the $580 million contract to produce the weapons in January after winning the Army and Air Force's XM17 Modular Handgun Competition. The Army will continue to use 9mm rounds, subcontracted to ammunition manufacturer Winchester. Power said the Army did not have a preference to remain with the 9mm rounds, but rather used a systems approach to determine ammunition type.

"There was no prejudice toward 9mm," Power said. "The goal was to pick a system that best met our requirements."

Originally posted to www.army.mil.

US Army Announces Industry Day For Next Generation Squad Automatic Rifle

Friday, June 2nd, 2017

The PM Soldier Weapons has announced a classified (yes, classified) Industry Day at Ft Benning on 25-27 July 2017 for the Next Generation Squad Automatic Rifle (NGSAR) which a single incremental program to replace the M249 Squad Automatic Weapon (SAW) in Brigade Combat Teams (BCT) and select support units during the next decade. Remember, NGSAR is one of the Army’s budget priorities.

IMG_2148

It will combine the firepower and range of a machine gun with the precision and ergonomics of a carbine, yielding capability improvements in accuracy, range, and lethality. The weapon will be lightweight and fire lightweight ammunition with improved lethality. The NGSAR will help to reduce the heavy load that burdens Soldiers and that has a significant negative impact on their mobility, survivability, and firing accuracy. Soldiers will employ the NGSAR against close and extended range targets in all terrains and conditions. The NGSAR will be compatible with and dependent on legacy optics and night vision devices to meet required capabilities. It will also be compatible with the Small Arms Fire Control system currently in development and possess back-up sights. It is anticipated the NGSAR support concept will be consistent with (comparable to) that of the predecessor M249 SAW involving the Army two level field and sustainment maintenance system. The NGSAR will achieve overmatch by killing stationary, and suppressing moving, threats out to 600 meters (T), and suppressing all threats to a range of 1200 meters (O).

Loads of technical data and requirements follow.

Mandatory Key Performance Parameters (KPP) described below identify the mandatory system capabilities for the NGSAR. These KPPs are essential to the development and improvement of an effective military capability that will make a significant contribution to the characteristics of the future joint force.

KPP 1 System Survivability:
The NGSAR is a mission critical system that must be survivable to chemical, biological, radiological, nuclear (CBRN) exposure to include effects of electromagnetic pulse and cyber-attacks. The NGSAR must be operational after exposure to chemical, biological, radiological, and cyber-attack (T). The NGSAR must be operational after exposure to chemical, biological, radiological, nuclear, cyber threats and electromagnetic pulse (O).

KPP 2 Operator System Training:
Soldiers will be trained to comply with the accuracy requirements in this document under simulated combat stressful conditions. Training on the system will be standards-based, leveraging technology in system design to minimize the training time and resources needed for operators/maintainers to achieve system competency. The following criteria will help to ensure system trainability:
1. TASK STEPS: 85% (T) to 95% (O) of tasks to operate and maintain the system will require less than 10 steps (including sub steps).
2. JOB/MEMORY AIDS: 85% (T) to 95% (O) of tasks that require 10 or more steps (including sub steps) will have job/memory aids that provide written procedures or diagrams to enable operators to perform the tasks without the need for extensive memorization.
3. MEMORIZATION: No more than 8 (T) and preferably 3 or less (O) discrete facts, terms names, rules, or ideas will be required to be memorized on any system task.
4. Instrumentable Multiple Integrated Laser Engagement System (I-MILES) Small Arms Transmitter (SAT) Tactical Engagement System (TES) Small Arms Transmitter (SAT). The NGSAR sight system must not interfere with the design, installation, or operation of the current I-MILES SAT and future Army-Tactical Engagement Simulation System (A-TESS) SATs when installed for Live Force-on-Force training.

KPP 3 Accuracy:
The NGSAR will have the capability to provide the P(i) metrics on the target sets located in the classified annex. This will require accurate P(h) along with ammunition capability.

KPP 4 System Weight:
The NGSAR combat configured weapon including sling, bipod and sound suppressor will weigh no more than 12 pounds (T) 8 pounds (O). This does not include ammunition or magazine.

KPP 5 Ammunition Weight:
The NGSAR ammunition will weigh 20 percent less than tactical brass equivalent caliber ammunition (T) 50% (O). Note the NGSAR ammunition could be a caliber not currently in use by the US Army. In that case the equivalent weights will be calculated through interpolation by the USG.

Key System Attributes (KSAs) described below are considered essential to achieving a balanced solution/approach to a system, but not critical enough to be designated a KPP.

KSA 1 Sustainment:
1. Operational Availability (AO): The NGSAR at the system level will be no less than 94.2% (T), 95.1% (O) measured over an extended period of operations consistent with (and indicative of) the annual wartime system usage cycle.
2. Reliability: The NGSAR will be functional in all operational environments (hot, basic, cold, severe, extreme sand/dust). Reliability of the NGSAR, measured at the system level (functions of weapon plus ammunition addressed collectively as an integrated capability) during equipment operation in accordance with wartime usage.
2.1 Class I (Immediately Operator Clearable) Failures: The NGSAR will demonstrate 94.5% (T), 99.3% (O) probability of successfully completing a day of wartime operations (daily average of 450 rounds fired per weapon) without incurring more than one immediately operator clearable (Class I) EFF as defined in the NGSAR Reliability FDSC (EFFs of Class I severity are clearable in 10 seconds or less).
2.2 Class II (Operator Clearable) Failures: The NGSAR will demonstrate not less than 90.1% (T), 99.2% (O) reliability of successfully completing each individual wartime mission specified in the OMS/MP (most demanding mission involves 293 rounds fired per weapon) without incurring a Class II operator clearable EFF (which requires more than 10 seconds to clear).
2.3 Class III (Non-Operator Clearable) Failures: The NGSAR will demonstrate not less than 90.6% (T), 92.0% (O) reliability of successfully completing the 72-hour wartime scenario specified in the OMS/MP (1,349 rounds fired per weapon) without incurring a non-operator clearable (Class III) EFF.
2.4 Barrel Life: The NGSAR will have a barrel life capable of meeting KPP accuracy/dispersion requirements with no more than a 10% degradation for 10,000 (T) and no degradation for 20,000 rounds (O).

KSA 2 Total Ownership Cost (Weapon Only):
Intentionally left blank.

KSA 3 Size:
NGSAR will have a maximum length of 38 inches and no longer than 35 inches with the buttstock in the stowed configuration (T); 35 inches maximum length and no longer than 32 inches with the buttstock stowed (O).

KSA 4 Rate of Fire:
NGSAR shall be capable of a rate of fire of 60 rounds per minute for 16 minutes and 40 seconds without a barrel change or risk of cook-off. Cyclic 200 rounds without cook off (T). NGSAR will be capable of 108 rounds per minute sustained for 9 minutes and 16 seconds without barrel change or risk of cook off. Cyclic 300 rounds without cook off (O).

KSA 5 Controllability:
NGSAR shall enable the Soldier to maintain a clear sight picture during automatic fire engagement of moving targets from the prone position with bipod (T). NGSAR will allow the Soldier to maintain a clear sight picture during engagement of moving targets from the kneeling position (O). Low recoil will allow the Soldier to better control the weapon and remain on target improving probability of hit. Recoil energy limitations will be in accordance with Test Operations Procedure 3-2-045 and Table 1 of TOP 03-2-826A.

KSA 6 Firing Modes:
NGSAR will have the capability to fire in automatic and semi-automatic modes (T). NGSAR will be capable of firing two rounds with one trigger pull with both rounds impacting the target within 1 inch at 100 meters in automatic or semi-automatic modes (O).

KSA 7 Weapon Signatures:
1. Suppressed sound signature at the shooter’s ear will be less than the suppressed M249 (T). The NGSAR will be unable to localize by sound beyond 300m (O). Localize is defined as the detection and subsequent identification of the weapon system, to include the type of weapon, and its location to the degree that an enemy could return effective fire on it. Improved suppression is for combat ammunition only and will not interfere with Training Aids, Devices, Simulators, and Simulations (TADSS.)
2. Suppressed flash signature will be less than the M249 (T). The NGSAR will be unable to be localized by flash out to 300m (O). First round flash will not be greater than the flash from subsequent rounds. Improved suppression is for combat ammunition only and will not interfere with TADSS.
3. The NGSAR thermal signature will be equal to or less than the M249 (T). NGSAR will possess advanced signature management capability to reduce thermal signature (O).
4. The NGSAR suppressed will produce less toxic gasses than the M249 unsuppressed firing M855A1 ball ammunition. The NGSAR suppressed will produce less toxic gases at the shooter than the M249 unsuppressed firing M855A1 ball ammunition (O).

KSA 8 NGSAR Ammunition:
1. NGSAR Combat Ammunition: NGSAR combat ammunition must provide the probability of incapacitation as listed in the NGSAR CDD classified annex. There must be a Tracer and Ball variant; the Tracer ammunition must provide a visual signature observable by the shooter with unaided vision during both daylight and night conditions (30-degree oblique from either side of the weapon) out to 600 meters (T). The ammunition must provide a visual signature observable by the shooter with unaided vision during both daylight and night conditions (30-degree oblique from either side of the weapon) out to 1200 meters (O).
2. Live Fire Training Ammunition: NGSAR live fire training ammunition must be accurate enough to hit single “E Type” silhouettes at 600 meters with 50% probability of hit (Ph) using conventional weapons zeroing techniques, with a maximum range that does not exceed 2400m. The ammunition must provide a visual signature with unaided vision during both daylight and night conditions to 600 meters. The objective version of this round possesses sufficient accuracy to be used for qualification on reduced range scenarios. Normal weapon wear and tear caused by the live fire training ammunition shall be equivalent to or less than the legacy M855 cartridge. Penetration performance of the M855 at 600 meters and the associated testing procedure was quantified for industry in MIL-C-63989. The penetration performance sought is worse performance than the M855 against AISI steel targets at all ranges over 5 meters. The objective live fire training cartridge penetration performance shall be less than the legacy M855 cartridge at all distances over five meters. This shall be demonstrated using the maximum thickness of AISI 1010 steel plate that the legacy M855 is expected to reliably perforate (V50; zero obliquity) at five meters. No perforation of that target is what is sought. For safety purposes, plate thickness may be extrapolated by suitable precision penetration experiments done at greater distances.
3. Force-on-Force Training Ammunition: NGSAR force-on-force training ammunition shall replicate the flash and noise of NGSAR combat ammunition. The NGSAR will possess a feature (such as a training bolt) that precludes the use of combat ammunition. The ammunition will have distinct, identifiable markings to enable identification under both normal and reduced visibility conditions. The operator will not be required to bore sight or zero the weapon to effectively use the force-on-force training ammunition. Any projectile fired must be accurate to hit single “E Type” silhouettes at 30 meters with 50% probability of hit using conventional weapons zeroing techniques. Any projectile shall be made in at least three colors that will wash off with the use of water. The ammunition shall not contain heavy metals, volatile, or ozone depleting chemicals and shall be non-toxic to allow for firing indoor without creating a toxicity problem. The use of this ammunition shall in no way degrade the weapon’s current performance (when the weapon is reconfigured for combat/service ammunition) or degrade the useful life of these weapons. The operator and other soldiers must be able to visually identify that force-on-force training ammunition is loaded into the weapon from a distance of 5 meters under daylight conditions (T). Force-on Force training ammunition must not penetrate human skin clothed in the standard Army issue uniform nor fracture or break the standard Sun, Wind, Dust (SWD) Goggle lens (LEXAN 1.52mm thick) when fired at a distance of 1.0 meter (39.3in) from the muzzle of the weapon. Force-on Force training ammunition must not penetrate human skin nor fracture or break the standard Sun, Wind, Dust (SWD) Goggle lens (LEXAN 1.52mm thick) when fired at a distance of 0 meters from the muzzle of the weapon (O).
4. Blank Training Ammunition: The NGSAR blank ammo will be utilized for force-on-force skill development and will have distinct identifiable markings to enable identification under both normal and reduced visibility conditions. The use of NGSAR blank ammo shall not degrade the weapon’s current performance (when the weapon is reconfigured for combat/service ammunition) or degrade the useful life of these weapons. The NGSAR blank ammo, when fired at one meter will not penetrate human skin clothed in the standard Army issue uniform. NGSAR blank ammo must fully complement all current and planned TADSS devices relying on blank ammunition for force-on-force training devices (i.e. I-MILES) (T). The NGSAR blank ammo, when fired at zero meters, must not penetrate human skin clothed in standard Army issue uniform (O).
5. Drill Ammunition: NGSAR drill ammunition must facilitate the performance of weapon operator tasks similar to live ammunition to include chambering weapons, clearing weapons, weapon maintenance tasks (including verification of proper weapon setup after maintenance procedures) and ammunition familiarity without risk of activating energetic materials. It must be standardized and easily discernible from other types of ammunition by Soldiers under training representative conditions (T=O).

KSA 9 Mobility:
Soldier mobility has a direct correlation to combat effectiveness. The lightweight NGSAR and ammunition with improved ergonomic features will not result in a reduction in Soldier mobility, agility, responsiveness, as measured by time to complete an Army obstacle course, such as the LEAP-A course, relative to the current baseline system with a combat load of ammunition (T). Soldiers carrying the NGSAR with a combat load of ammunition shall demonstrate a 10% improvement in Soldier mobility as measured by time to complete an Army obstacle course, relative to performance with the baseline system (O).

Additional Performance Attributes (APA) listed below are performance attributes of a system not important enough to be considered a Key Performance Parameter (KPP) or Key System Attribute (KSA), but still appropriate to include. Details to be provided during Industry Day.

APA 1 Integration
APA 2 Protective Materials
APA 3 Shot Counter
APA 4 Operational Controls
APA 5 Back-Up Sight
APA 6 Field Stripping and Tools
APA 7 Compatibility with Personal Protection Equipment
APA 8 Visual Signature
APA 9 Sling
APA 10 ID Markings
APA 11 Cleaning Kit
APA 12 Blank Firing Adaptor (BFA).
APA 13 Data Transfer (Intelligent Rail)
APA 14 – Weapon System Maintenance Ratio (MR)
APA 15 – Mean Time to Repair (MTTR)
APA 16 – Special Tools

It’s unfortunate that the Army has chosen to conduct this program at the classified level as they will preclude the vast majority of the industrial base. Few actual firearms manufacturers have facility clearances, let alone employees with active DoD security clearances. Let’s hope they sort this out.

For full details on the industry day event, visit www.fbo.gov.