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Max Talk Monday 20: GEAR: Fight Lite! Setting up your Mission Ready Operational Kit

Monday, May 6th, 2019

This is the twentieth installment of ‘Max Talk Monday’ which shares select episodes from a series of instructional videos. Max Velocity Tactical (MVT) has established a reputation on the leading edge of tactical live fire and force on force training. MVT is dedicated to developing and training tactical excellence at the individual and team level.

This video focuses on setting up your Fight Lite Mission Ready Operational Kit / Load Out in line with the Max Velocity Tactical gear philosophy.

Detailed explanations can be found in the MVT Tactical Manual: Small Unit Tactics.

Max is a tactical trainer and author, a lifelong professional soldier with extensive military experience. He served with British Special Operations Forces, both enlisted and as a commissioned officer; a graduate of the Royal Military Academy Sandhurst. Max served on numerous operational deployments, and also served as a recruit instructor. Max spent five years serving as a paramilitary contractor in both Iraq and Afghanistan; the latter two years working for the British Government in Helmand Province, Afghanistan.

Website: Max Velocity Tactical

YouTube: Max Velocity Tactical

Excellence in Tactical Training.

SCUBAPRO Sunday – How to Choose a Dive Knife

Sunday, May 5th, 2019

A dive knife is an indispensable tool. Offered in a variety of styles and sizes, corrosion-resistant metals and featuring a choice of cutting edges to handle different cutting tasks, a diving knife is a must-have item. A good dive knife is a must-have when you go thru underwater knife fighting school.   

Dive Knife Sizes

Dive knives range from the traditional full-sized knife’s that you generally strap to your lower leg, to compact ones that can be mounted on a BCD pocket or secured to an HP hose.  

The K6 is an excellent example of a traditional-style full-sized all-purpose diver’s knife.  Its large six-inch blade and ergonomic grip handle comes with an injected molded sheath and two quick-adjusting buckle straps that mount easily on the lower leg.

 

 

At the other end of the spectrum is a diver knife like the White Tip.  With a blade length of about 2.5 inches and an overall length of just under six inches, this type of knife is compact enough to attach to a hose or a BCD as a primary knife or to stow in an easy-to-reach pocket as a back-up cutting tool.

 

 

Diving Knife Materials

Stainless Steel Diving Knives

Stainless steel is the most common alloy used in the manufacturing of dive knife blades.  The majority of dive knives are made of either Grade 304 stainless steel or Marine Grade 316 stainless steel. 

Grade 304 hard-tempered stainless steel is a very versatile metal that is used in a variety of outdoor applications.  It offers resistance to surface oxidation and provides an excellent cutting edge.  Because it is a little softer than Marine-Grade 316 stainless steel, a Grade 304 blade needs to be sharpened more frequently to maintain its right cutting edge.  The stainless steel version of the Mako is an excellent example of a diving knife made with Grade 304 stainless steel. Marine Grade 316 stainless steel is similar to Grade 304, but it has one crucial extra ingredient: molybdenum. This is a hard, silver-white metallic element used to toughen the steel. This enables Marine Grade 316 dive knives to maintain their super-sharp edges for longer periods, plus it increases corrosion-resistance. SCUBAPRO’s premier dive knife, the TK 15, offers a six-inch Marine Grade 316 stainless steel blade.  The blade surface is polished explicitly so that water can drain quickly to prevent oxidation further.  Also, the thickness of the knife’s stainless steel is consistent from one end to the other, creating a high level of stiffness and strength.

 

Titanium Diving Knives

Another popular material for dive knife blades is hardened titanium.  A titanium dive knife blade is entirely corrosion-resistant, it is lightweight yet extremely strong, and it can hold a sharp edge for a long, long time, all of which make titanium dive knives excellent cutting tools for use in saltwater environments.  The lightweight, multi-function X-Cut titanium dive knife is an excellent example of a titanium cutting tool.  Measuring just over five inches in overall length, its 2.5-inch blade is specially designed to maintain a highly-durable cutting edge for a long life of corrosion-free performance.

 

 

Diver’s Knife Cutting Edges, Tips and More

Dive knife blades come with either a plain edge, a serrated edge or a combination of both to handle a variety of cutting jobs.

A plain edge is good for making clean slicing cuts, or when using more of a pushing motion when control and accuracy are required – like filleting a fish.  This type of cutting motion is especially useful if the cutting edge is curved.  Plain edges are also easy to maintain.  Anyone with a basic sharpening tool can keep a plain edge razor sharp with little effort.

A serrated edge has a series of mini-edges or teeth similar to a hand saw.  A serrated edge is excellent for sawing-type cuts through heavy materials like wood or rope or stubborn kelp fronds.  For example, using a plain edge it would take forever to cut through a three-quarter inch anchor line, but a serrated edge would make quick work of it as the teeth bite deep into the material with every sawing motion.  A serrated edge also stays sharp for much longer than a plain edge, but it is a bit more difficult to sharpen.

Because these different blade edges excel in cutting different types of materials, most dive knives offer both, often on the same cutting plane.  Normally, the plain edge can be found closer to the tip of the blade, beneath the curve or “belly” of the blade, whereas the serrated portion can be found closer to the handle for better leverage when leaning into the tougher cuts.

Since a scuba diver’s knife blade’s cutting efficiency increases in relation to its length, dive knives that sport long blades, like the TK15 and K6, separate their cutting edges, devoting the entire top length of the blade to serration, and the entire bottom length to the plain edge.  This maximizes the length of each cutting edge and the overall efficiency of the knife.

When it comes to blade tips, dive knives normally come with either a blunt tip, a tanto tip, or some variation of a pointed tip.

On one end of the spectrum is the blunt tip.  As its name implies, the blunt tip is flat and dulled.  It is designed to be more of a prying tip than a piercing tip.  It is considered safer than other tips because you can’t accidentally stab your leg or puncture your BCD when returning it to its sheath.

On the other end of the spectrum is the pointed tip.  These tips come in a variety of shapes.  For example, the TK15 comes with a drop-point tip.  This is where the blade’s upper edge, or spine, gradually “drops” as it reaches the tip of the blade to form the tip.  This is considered a strong tip that is easy to control when cutting or piercing. 

The K6 and X-Cut have clip-point tips, so-named because the spine of the blade is “clipped” as it approaches the tip.  This creates a narrow tip that can be very useful for piercing a line wrapped tightly around a boat propeller in preparation for a slicing or sawing cut.  While not quite as strong as the drop-point, the clip-point is considered a very sharp and controllable point.

Falling in between the blunt tip and pointed tip is the tanto tip.  Combining elements of blunt and pointed, the typical tanto tip offers more of an angled tip which is sharpened for cutting, like on the Mako.  However, sometimes the tanto tip provides a small blunt spot as well as you’ll find on the White Tip.  Both versions produce a very strong and durable tip, enabling you to do a little prying with less chance of snapping the tip, with the added ability do some cutting when working in tight spaces.

Most dive knife blades also include a notch for cutting fishing line and, depending on design, and you can sometimes find additional tools like a bottle opener (Mako), a stainless steel handle-end for hammering (K6) or a shackle key (TK15).

 

Unique Cutting Tools You Won’t Want to Overlook

Not all scuba cutting tools look like a dive knife.  Take, for example, the innovative stainless steel Mesh Cutter.  While traditional dive knives are most effective when used with a pushing motion, the Mesh Cutter is designed to be used with a pulling motion.  This is a safer motion, plus it provides great leverage and lots of cutting power with minimal effort.  The ultra-sharp hooked blade is ideally shaped for slicing through line and netting.

 

What’s the Best Dive Knive?

Like with most types of dive equipment, the ideal knife depends on your individual diving style, and how you like to carry your gear. The choices are many. The good news is that with the variety of dive knives available in different sizes, shapes, materials and mounting options, finding the best dive knife to suit your unique diving needs shouldn’t be too difficult. 

 

Army Selects Senior Research Scientist for Terminal Ballistics

Sunday, May 5th, 2019

ABERDEEN PROVING GROUND, Md. — The U.S. Army recently announced the selection of a new senior research scientist for terminal ballistics.

Dr. Scott E. Schoenfeld assumed the position March 17. He previously served as the senior scientist for the Lethality and Protection Sciences Campaign, chief of Armor Mechanics and chief of Impact Physics research with the Weapons and Materials Research Directorate of the U.S. Army Combat Capabilities Development Command’s Army Research Laboratory.

Terminal ballistics is a sub-field of ballistics and examines of the behavior and effects of a projectile as it transfers its energy to a target.

Across the Army there are less than 50 senior research scientists, known as STs, who serve as general-officer equivalents, advising leadership on science matters.

Schoenfeld will serve as the “as the Army’s leading expert in the field,” according to the announcement.

Schoenfeld’s experiences include oversight, guidance and execution of “broad theoretical and experimental initiatives to understand the mechanics and physics of weapon-target interactions,” as well as execution and oversight of applied research and development of programs associated with ballistics, terminal effects, mechanics, directed energy and computational science and engineering.

His responsibilities also included leadership of national and international partnerships conducting investigative programs in the areas of mechanics, physics and electro- magnetic response of materials and structures under conditions of blast, impact and penetration and the development of ceramic, energetic, smart, electromagnetic and hybrid protection technologies appropriate for battlefield deployment.

Schoenfeld earned a doctorate in applied mechanics in 1995 from the University of California, San Diego.

“My personal research experiences focus on the mechanics of materials with emphasis on multi-scale theories for single and polycrystalline materials and development of theories into computational algorithms suitable for simulation of impact conditions, penetrator-target interactions, structural failure and high strain-rate deformation of materials,” he said.

Schoenfeld has published several dozen peer-reviewed publications, ARL Technical Reports and Conference proceedings and has been active in American Ceramic Society, The Metals Minerals and Materials Society, American Society of Mechanical Engineers, The Materials Research Society, United States Association for Computational Mechanics, and the Hypervelocity Impact Society.

He has received numerous honorary awards including the Department of the Army Meritorious Civilian Service Award for cumulative contributions to the development of armor technology, a Department of Army Research and Development Award for Leadership Excellence and two Army Greatest invention awards.

“Dr. Schoenfeld’s expertise and leadership will accelerate the availability of superior, light weight, and agile protection for Army soldiers and vehicles. He will create, grow and capitalize on talent and ideas from across the DOD, industry, academia and other government agencies to accelerate availability of disruptive discoveries that will enable the United States and our partners to compete and win in multi-domain operations,” said Dr. Jeff Zabinski, WMRD director. “Internal to ARL, he will focus on our core competencies in Terminal Ballistics and Sciences for Lethality and Protection.”

“Please join me in congratulating Dr. Schoenfeld on this significant professional accomplishment as he becomes a member of the prestigious senior professional community,” wrote CCDC Commanding General Maj. Gen. Cedric T. Wins in an email to the workforce.

By CCDC Army Research Laboratory Public Affairs

CCDC Army Research Laboratory (ARL) is an element of the U.S. Army Combat Capabilities Development Command. As the Army’s corporate research laboratory, ARL discovers, innovates and transitions science and technology to ensure dominant strategic land power. Through collaboration across the command’s core technical competencies, CCDC leads in the discovery, development and delivery of the technology-based capabilities required to make Soldiers more lethal to win our Nation’s wars and come home safely. CCDC is a major subordinate command of the U.S. Army Futures Command.

The Baldwin Files – The Fighting Load Continuum Part II

Saturday, May 4th, 2019

It has been a couple of months since Part I of the Fighting Load Continuum (FLC) series. I am not going to re-plow the same ground, but I will be referencing points from the first article. Consequently, it would probably be helpful for readers to review Part I before reading this iteration. We will start where the last part ended. “leaders have to face the fact that for the majority of dismounted combat operations – even relatively short ones – it is all but impossible to avoid at least some overloading [and]…the goal of effective load management should be to keep as many of a unit’s soldiers as possible in the more combat effective green range [of the FLC] – for as much of the time as possible – rather than the cautionary amber or high-risk red zones.

I gave away the “bottom line” of my own FLC concept last time. There is no magic solution and there is no trick to effective dismounted load management – it just requires timely, hard choices and deliberate trade-offs between firepower, protection, and mobility. However, units can be considerably more tactically effective if leaders make better-informed, pre-mission load management decisions. That involves consistently practicing the fundamentals like planning the mission first, then the load; focusing on successful prosecution of the fight, rather than equitably distributing the weight; and practicing and mastering deliberate and hasty load transitions. If a unit is following the age-old principles I outlined last time, everything carried is needed and represents capabilities deemed essential – not just unrelated or superfluous burdens to be endured.

Leaders need to acknowledge their limitations and not waste time agonizing over factors that they cannot “fix,” mitigate, or eliminate. Consider body armor for example. For extended dismounted combat operations involving “closing with and destroying the enemy by fire and maneuver,” I am – and have been – comfortable with lighter plate carriers and helmets. I accept the tradeoff between reduced protection and enhanced individual mobility. If in a static defense or mounted operations more body armor (protection) may be more appropriate. For dismounted reconnaissance perhaps no armor at all. What the leader cannot fix, mitigate, or eliminate in combat is the likelihood – sometimes the certainty – that some of your soldiers will die or be seriously injured no matter what choice you make. A leader has to live with that truth and shoulder than burden alone.

Likewise, recognize up front that load discretion is actually quite limited. Fixed weight items are a constant. Weapons, clothing items, body armor, and technological aids weigh what they weight – and if deemed necessary will be carried. NBC protective gear would be another example. If there is a realistic threat that the enemy will use chemical weapons there may not be a choice – the gear will need to be carried. On the other hand, consumables, like water, food, batteries, and ammunition, must be carried in quantities based on the anticipated rate of consumption and frequency of planned resupply. Longer duration missions, and those with limited options for external resupply, naturally force a unit to carry more of all consumables. Still, a unit should only carry what it truly needs, wasting nothing, and not burdening itself with “nice to have” items.

There is nothing new about that tactical reality. In fact, US Army doctrine on load management has been remarkable consistent for decades. ALL of the doctrine has repeatedly recommended that the “fighting load” not exceed ~48 lbs and so called “approach march load” not exceed ~72 lbs. However, FM 21-18, Foot Marches, as far back as 1990, explicitly acknowledged the inescapable conundrum. “Unless part of the load is removed from the soldier’s back and carried elsewhere, all individual load weights are too heavy [emphasis added]. Even if rucksacks are removed, key teams on the battlefield cannot fulfill their roles unless they carry excessively heavy loads. Soldiers who must carry heavy loads restrict the mobility of their units. Overloaded soldiers include the antiarmor teams (individuals carry weights of 111, 101, and 90 pounds), mortar teams (individuals carrying 83 pounds, even after distributing 100 mortar rounds of 3.5 pounds each), fire support teams (carry 92 to 95 pounds), and M60 machine gun teams (carry 78 to 87 pounds). All radio operators equipped with the AN/PRC-77 and KY57 VINSON secure device are also loaded above the maximum recommended combat load (84 pounds). AT4 gunners and low-level voice intercept teams are overloaded as well as Stinger and engineer breaching teams.”

That goes to show that recognizing the problem does not in and of itself solve the problem. One might incorrectly assume that today’s excessive loads can simply be attributed to changing public attitudes about casualties and some element of subsequent risk aversion by modern uniformed and civilian leadership. Except, the overloading of soldiers has always been a problem in every army and in every era throughout history. Generally, soldiers went to war with less capability, a.k.a. “lighter” than their opponents only because of the logistical limitations of their side in the conflict – not by choice. It is also true that lighter forces alone can reasonably delay, but rarely “win” toe-to-toe fights against heavier forces. Think Operation Market Garden.

Much has often been made of the fact that, in many cases, insurgents in Iraq and Afghanistan can run away faster than we can pursue on foot. Sure, small groups of locally based fighters that have no intention of seeking or accepting decisive battle can operate and travel extremely light. Indeed, blending quickly back into the general population enhances their chances of survival –not firepower. That is frustrating but in no way indicates that the insurgents are “winning” individual skirmishes. As a matter of fact, because of the more substantial capabilities we routinely carry and can bring to bear, we have – on average – been killing more than 100 insurgents for every one of ours lost for the last 18 years. Even overloaded by comparison, it is extremely rare for us to be at risk of losing any tactical engagement. Granted, it is also true that the prosecution and ultimately the strategic outcome of a war has very little to do with relative body counts, or whether we succeeded or failed to manage individual soldier loads, or even win tactical engagements.

Let us focus for a moment on one consumable class of supply in particular – ammunition. Can a unit or individual have “too much” ammunition. If in a static defense the answer may be no; however, if that ammunition has to be carried on soldiers’ backs the answer is yes. Ask any overloaded trooper who drowned in the inland canals or wading ashore at Normandy. Excess weight is excess weight. As mentioned in Part I, the baseline or standard “fighting load” has been defined by whatever the “basic load” of ammunition is for a rifleman in a given timeframe. Frankly, there has never been much “science” behind determining what a basic load should be. In the First World War, when the 1903 Springfield was the standard rifle, a soldier’s basic load was 55 rounds. 50 in his ammunition belt and 5 in the rifle. For the M1 Garand it was 88. 80 in the belt and 8 in the rifle. For the M14 it was 100 rounds, 80 in ammo pouches and 20 in the rifle. During the initial fielding of the M16 it was 140 (seven 20 round magazines) – although in Vietnam soldiers habitually carried twice that or more. After Vietnam, and the standardization of the 30 round magazines, a basic load stabilized at 210 rounds (7 magazines). I am not being facetious when I say that, historically, it seems the number of rounds or magazines a solder can carry in the issue ammunition belt or pouch has dictated basic loads – not rigorous scientific study.

Do modern riflemen actually need to carry almost three times more ammunition than their World War II counterparts? There is no quantifiable evidence that I am aware of that supports any such conclusion. Logisticians have developed scientifically derived and reliable food and water consumption rates for soldiers in combat. On the other hand, ammunition consumption rates are essentially subjective; and therefore, are of limited utility and not reliable at all. Simply stated, based on even a cursory review of modern (WW II and later) historical combat engagements, the more ammunition available, the more ammunition a unit in combat expends. This is true whether the unit ultimately wins or loses any particular fight.

If a modern unit does legitimate mission analysis and concludes that double or triple basic loads – i.e. 6-9 times what the WWII infantryman carried – is necessary to take an objective, maybe the task is simply more appropriate for a larger unit to tackle?  In any case, I would respectfully suggest that the unit establish an expedient range and expend that extra ammunition to improve soldier shooting skills and confidence before going on the mission instead. I can just about guarantee that would be a more effective use for that ammunition than carrying all that extra weight out of an overabundance of caution or fear.

In other words, it is much more likely that excess ammunition will be wasted rather than used for good effect. As seen in the attached picture, blindly pointing a weapon in the general direction of the enemy and going cyclic until running out of ammunition or a weapon inevitably fails is usually referred to as the “spray and pray” firing technique. Indeed, even calling it a “technique” lends it some semblance of unwarranted legitimacy and is far too kind. Let us call “spray and pray” what it is – panic fire. While panic fire may be emotionally cathartic for poorly trained leaders and scared soldiers, it produces no positive tactical results – and wastes a great deal of ammunition. In short, despite its reportedly widespread use by American forces in Vietnam, panic fire is NOT effective at eliminating the threat or winning the close fight. How do I know that with a high degree of certainty? Simple, no Army has ever had programs of instruction or ranges designed and dedicated to teaching panic fire techniques.

A unit that allows soldiers to panic fire every time they make contact does not need more ammunition – they need more training and a lot more fire discipline. Fire superiority does not mean that one side makes more noise or simply fires more rounds than the other side. Fire superiority requires synchronized fire and maneuver to gain a relatively dominate position to suppress, fix, and ultimately finish an enemy – while simultaneously thwarting his efforts to do the same to you. That means, upon contact  – if not prior to contact – soldiers shed their excess load, return disciplined, aimed, and effective, fire in order to seize the initiative, out maneuver, and decisively out fight their opponents.

Historically, cohesive units with more combat experience tended to carry less rather than more ammunition into battle. Arguably, the unpopular draft, individual soldier and officer frequent rotation policies, and shake-and-bake-NCOs made the experience of some American units in Vietnam the exception that proves that rule. Conversely, American Airborne units of World War II were a great example for modern leaders to study. The paratroopers certainly jumped overloaded to get as much materiel into the fight as possible. However, the troopers dumped or cached the excess ASAP and went into the fight with not much more than ammo and water. That is because the Airborne training program emphasized speed over firepower. The ability of relatively lightly burdened troopers to secure tactical and operational objectives as fast as possible before heavier forces could react and reinforce those positions was critical to mission success. Therefore, the individual troopers and leaders trained with a focus on the lightest possible fighting load, not the necessarily heavy jump load.

Similarly, today’s leaders must triage the fight ahead and adjust load priorities accordingly to facilitate mission success. Do not confuse what you CAN carry with what you NEED to carry to win that fight. Determine what is needed, who needs to carry an essential item, and where (what echelon of the FLC) does the item need to be in to effectively support each phase of an operation. I would suggest that – except in extreme circumstances – a basic load of 7 magazines should be considered the hard ceiling for an individual rifleman’s load. Indeed, smart small-unit leaders know that their bigger organic “boom sticks” can produce better tactical effects against a determined enemy. Machineguns, recoilless rifles, and mortars provide more combat bang for the buck than individual carbines. In other words, instead of carrying more M4 magazines, a unit’s mission is likely better served by distributing more of the heavier ammunition for the crew-served weapons.

In Part III, I will discuss techniques for mastering those load transitions and some training strategies that can better prepare units and leaders to successfully manage every aspect of the Fighting Load Continuum.

LTC Terry Baldwin, US Army (Ret) served on active duty from 1975-2011 in various Infantry and Special Forces assignments. SSD is blessed to have him as both reader and contributor.

FirstSpear Friday Focus – Summit Bag Padded Insert

Friday, May 3rd, 2019

Today we are taking a look at an all new accessory for the popular FirstSpear Summit Bag line, the padded insert. Built to fit directly into your existing summit bags the padded insert is a high density low profile foam designed to fit perfectly inside your summit bag and offer padding to help protect sensitive items during transport while inside another larger pack or bag.

Available now for the medium (2L) size only. Made in the USA.

www.first-spear.com/summit

PAs Help Medical Personnel Hone Battlefield Skills

Thursday, May 2nd, 2019

FORT SAM HOUSTON, Texas — The Tactical Combat Medical Care Course (TCMC) began in April 2004 when several Physician Assistants (PAs) noticed that many medical Soldiers were being deployed to combat areas without being properly equipped or trained in medical combat readiness. The TCMC covers a wide variety of areas within a 5-day time frame to include trauma and wound care.

“Currently, the program is geared toward doctors, physician assistants, nurses and senior medics to prepare them for combat medical readiness at the point of injury,” said Shon Compton, an original founder of the program as well as an instructor at TCMC.

Compton added, “The course is presently taught at Fort Sam Houston and Camp Bullis in San Antonio, Texas, and includes didactic and hands-on field training. Although other Armed Services have been through the program, the course is geared towards active duty Army that can be centrally funded from their units. The priority is to those preparing for deployment.”

Presently, there is a waiting list to get in the course as they are targeting 1,500 to 2,000 students annually. The training is considered a sustainment course.

TCMC prepares the students with skills for medical events they may encounter while deployed, as well as sharpening the skills they already possess.

Bret Smith, an instructor and program manager with TCMC, said, “The course also covers trauma resuscitations that are geared toward the deploying provider.” He added, “We like to target those on orders about 180 days out. Over the years, we have realized that Soldiers should come through the course every 2-3 years to keep their skills up-to-par.”

While the students are already medically inclined, they are surprised at how much they learn from the program, as they are taken out of their comfort zone of the hospitals and put in situations such as working in a battalion aid station where the team works together in groups of four on traumatically injured casualties. The course is designed to force the students to improvise, think on their feet and take the lead in a trauma operation.

“Providers have to realize that during the course, there isn’t always assistance in the field and they must be able to learn to do a lot of the skills themselves, such as pushing medications, starting IVs or performing a cricothryotomy,” added Smith.

Over the past several years, the TCMC program has won several awards and is helping Soldiers achieve readiness in the field. “TCMC continues to be one of the best training programs in Army Medicine. It teaches our Soldiers about low or high intensity conflict in austere environments in the field of combat medicine,” said Smith.

Brigantes Presents – High Angled Solutions – Norrona Svalbard Lightweight Jacket

Wednesday, May 1st, 2019

Norrona, is a Norwegian outdoor company that continuously pushes the boundaries of functional product design to offer premium quality gear for any adventure, which makes them an ideal solution for the military.

With the Norrona Svalbard collection, they blend heritage and future to make progressive hiking products. The Svalbard lightweight jacket is a modern organic cotton mix outdoor jacket with all the functions and features to keep you protected from wind and some light/short showers.

Made with Pertex fabric, the jacket uses incredible fine yarns, precisely woven to provide a very lightweight, yet strong and durable fabric. Its softness allows down and synthetic insulation to fully loft and the downproof construction prevents the down from leaking through the face.

The jacket features articulated elbows for greater flexibility of movement and asymmetric cuffs with Velcro adjustment. The double YKK zippers, pockets and cuffs are DWR treated to ensure water repellent properties.

The Svalbard lightweight jacket has a unique centre front ventilation and a back ventilation for greater air circulation to give comfort during warm or high intense activities.

For those looking for a lightweight, durable windproof jacket for use on warmer treks and activities, the Norrona lightweight jacket not only satisfies the needs of the end user, but add greater flexibility, comfort  and ventilation.

For more information contact: international@brigantes.com

For UK sales contact warrior@brigantes.com

 

Navy Introduces New Uniforms for Brig Inmates

Tuesday, April 30th, 2019

MILLINGTON, Tenn. (NNS) — To enhance security and provide for public safety, all pretrial and post-trial prisoners confined in Navy shore military correctional facilities (MCFs) will begin wearing a Navy non-military standardized prisoner uniform (SPU) May 1.

Wearing of the SPU will be mandatory for all prisoners, regardless of Service affiliation.

Currently, all prisoners confined in Navy shore MCFs wear their respective Service utility uniform.  The “military model” approach adheres to a Navy philosophy, that the approach curbs abusiveness, maintains structure and discipline with core military values to influence positive behavior in an effort to support the prisoners’ rehabilitation.

“However, having prisoners wear their Service uniform creates security and public safety challenges, such as difficulty in distinguishing staff from prisoners,” said Jonathan Godwin, senior corrections program specialist with the Corrections and Programs Office, Navy Personnel Command.

“Prison populations are largely comprised of prisoners incarcerated for crimes against people, which is reflected in courts-martial judgments with longer sentences and more less-than-honorable discharges from service,” Godwin added. “Additionally, punishments consist of total forfeiture of all pay and allowance, and it is rare for a prisoner to return to active duty.”

Pairing these challenges with a prisoner population almost exclusively in a non-pay status and not returning to duty, the costs associated with buying and maintaining Service uniforms becomes a tremendous and unnecessary fiscal burden to the Navy and the taxpayer.  The price for a Service-specific military utility uniform with one pair of trousers and a top is approximately $95. When you add in a fleece jacket, the total easily exceeds $150.

The new SPU top and trousers will cost approximately $18.50. Adding a belt, buckle, ball cap and watch cap, and the price is about $22.  Then add a jacket and the complete price to clothe a prisoner will be about $45.

There will be two, distinct in color, uniforms worn by prisoners with the prisoner’s legal status determining which will be worn. The pretrial prisoner uniform will be chocolate brown in color and post-trial prisoner uniform will be a tan-colored uniform.

The SPU consists of MCF issued shirt/blouse, pants, web belt with open-faced buckle, and Service-issued undergarments, service-issue socks and boots or facility approved footgear.  Additional SPU accessory items consist of a prisoner jacket and a baseball cap and/or beanie/watch cap.

“In addition to the enhancement of correctional security, improved public safety and significant fiscal savings, the wearing of the new SPU will produce numerous benefits across a wide range of Navy corrections operations,” Godwin said. “These include an SPU with a neat and professional look, an easier-to-maintain and care-for uniform, and less wear and tear on equipment, i.e. washing machines and dryers, and less cleaning supplies, i.e. laundry detergent.”

The SPU will be provided and funded by the Navy MCF.  During in-processing into a Navy MCF, prisoners will sign for the uniforms and they will be held responsible for care and maintenance. Upon release from confinement, the prisoner will return the issued SPUs back to the MCF.

Also beginning May 1, clothing and packing list for prisoners entering confinement will no longer require four sets of utility uniforms and jackets.  However, prisoners in pretrial-status will require their service dress uniform for court appearances.

Commands placing a service member into a Navy MCF for confinement are encouraged to review the required confinement documents and clothing packing lists, which can be found at www.public.navy.mil/bupers-npc/support/correctionprograms/brigs.

From Navy Personnel Command Public Affairs