Abolish the Officer-Enlisted Divide? Negative

The following is an enlisted response to It’s Time to Abolish the Enlisted-Officer Divide at Task and Purpose.

Task and Purpose published an article by former active duty Marine William Treseder titled, It’s Time to Abolish the Enlisted-Officer Divide”. As an active duty enlisted member that would like to see some changes to the current regulations, I was disappointed by both the arguments and the lack of a solution presented.

Early in the article, we see this: “Despite significant changes in almost every aspect of the defense department, however, a lot of outdated practices remain. The worst offender is the distinction between enlisted and commissioned personnel.”

The worst offender is the distinction between enlisted and commissioned personnel? Why? What makes it the worst offender? I can think of any number of gripes and complaints I’ve heard from my shipmates (both officers and enlisted), and the enlisted officer divide is at the bottom of that list, if on the list at all.

The fundamental divide between an officer and an enlisted member deals with Responsibility, Authority, and Accountability. Simply, an officer is given more, and more is expected from him/her.

Many junior enlisted (myself included when I was but an ET3) look at an Ensign and don’t have an understanding of what accountability is. When junior enlisted make mistakes, the consequences are generally small. Treseder mentions his job as a corporal in charge of a fire team of six Marines. Yes, that is an enormous responsibility, but fundamentally different from the level of responsibility an Ensign standing Officer of the Deck underway has. While both have control over life and death, the impact is different. National security is impacted when a ship runs aground, if a fire team loses two Marines it is a tragedy for their families and teammates, but the mission will still continue, and national security is very likely to be maintained.

Furthermore, an Ensign’s mistake is likely to be the end of their career, while a junior enlisted’s mistake will generally result in reduction in rank and restriction…but a career-even a very successful one-is still possible.

Interestingly, Treseder points out a great explanation of what the difference between officers and enlisted is that came from Quora. I recommend following that link, because former active duty Marine Jon Davis explains the differences very well. This is waived aside by Treseder, however, by saying the difference between the two groups is “imaginary…convenient system we keep using because it is easier than trying to reorganize”.

As an Electronics Technician with 11+ years in the Navy, let me be the first to say that while I have no problem regularly scoring in the top 10% of my shipmates on the advancement exam, and a qualified Junior Officer of the Deck underway, I have very little knowledge on how to be a Department Head on a US Navy warship. Could I learn? Absolutely. But I would first have to learn how to be a Division Officer, spend at least one deployment as Officer of the Deck, learn how to think and act like an officer instead of an enlisted person, etc. Troubleshooting radios and ensuring communications work is vastly different from running a department.

To say there is a difference between the two groups is not to say that one is superior to the other. Only you can make yourself feel inferior to another human being. Anyone with military experience knows the difference between a leader who can make things happen, and one who can’t. I’ve met boot Ensigns that were better leaders than some Chiefs, although the opposite is generally the case. No leader relies on rank to make things happen: leaders get it done; rank follows. Both officers and enlisted use the same basic tenets of leadership, but each lead in different capacities. It is a disservice to each to pretend there is not separation of responsibility, accountability, and authority.

This reminds me on another thing I hear on occasion from junior sailors: “we should salute Chiefs”. The mistake made there is that a person requires a salute to be respected, or that a salute somehow solidifies their leadership role. But as a service member moves up the ranks, it becomes more obvious that Chiefs don’t need a salute to be effective. Their ability to get things done, which was rewarded with anchors (not created by them), commands respect.

Here’s the money quote, which directly contradicts the first paragraph of the article: “The military currently organizes, trains, and equips its personnel based on the assumption that everyone — save a select few — is a conscripted idiot who needs constant supervision.”

In case you forgot the first paragraph: “Our services are better manned, trained, and equipped than ever before.”

Which is it? Are we better trained now, or not? Why did the author put that line in the first paragraph, if he doesn’t believe it to be true?

jopa-patchI’m going to go out on a limb and say if you’re treated like a conscripted idiot, you’re probably creating that reality for yourself. And that is a reality that is neither confined to the enlisted nor the officer ranks. And if you don’t think that new officers are frustrated by their superiors, I’d suggest you find out what JOPA stands for.

Let’s stop fiddling with our military for five minutes and appreciate some of things it actually does correctly.

ET1(SW) Jeff Anderson is the San Diego CIMSEC chapter president and currently is assigned to LCS 2 (USS Independence).

UUVs as Stealthy Logistics Platforms

Guest post for UUV Week by  Steve Weintz.

As potential adversaries sharpen their abilities to deny U.S. forces the freedom to maneuver, they concurrently constrain America’s traditional strength in supporting expeditionary power. Sea-bases bring the logistical “tail” closer to the expeditionary “teeth,” but they must stay outside the reach of A2/AD threats. Submarines remain the stealthiest military platform and will likely remain so for some time to come. In addition to their counter-force and counter-logistics roles, subs have seen limited service as stealth cargo vessels. History demonstrates both the advantages and limitations of submarines as transports. Submarine troop carriers, such as those used in SOF operations, are distinct from submarine freighters; the submarine’s role in supply and sustainment is addressed here. Unmanned Underwater Vehicles (UUVs) will revolutionize minesweeping, intelligence collection, and reconnaissance. But they may also finally deliver on the century-old promise of the submarine as a stealthy logistics platform.

PIC
Deutschland (Launched 1916)

Although early submarine pioneers like Simon Lake saw commercial advantage in subs’ ability to avoid storms and ice, submarines as cargo carriers were first used operationally to counter Britain’s A2/AD strategy against Germany in World War I. The Deutschland and her sister boat Bremen were to be the first of a fleet of submarine blockade-runners whose cargo would sustain the German war effort. Despite her limited payload – only 700 tons – the privately-built Deutschland paid for herself and proved her design concept with her first voyage. But the loss of Bremen and America’s turn against Germany scuttled the project.

Cargo subs were again employed in World War II. The “Yanagi” missions successfully transported strategic materials, key personnel, and advanced technology between Germany and Japan. The Japanese also built and used subs to resupply their island garrisons when Allied forces cut off surface traffic. Their efforts met with limited success – enough to continue subsequent missions but not enough to shift the outcome of the Allied strategy. The Soviet Union also used submarines to sustain forces inside denied areas at Sevastopol and elsewhere. These efforts inspired serious consideration of submarine transports that carried over well into the Cold War. Soviet designers produced detailed concepts for “submarine LSTs” capable of stealthily deploying armor, troops and even aircraft.

Dr. Dwight Messimer, an authority on the Deutschland, points out that cargo subs – with one notable exception – have never really surmounted two key challenges. They have limited capacity compared with surface transports, and their cost and complexity are far greater. If subs are made larger for greater capacity, they forfeit maneuverability, submergence speed, and stealth. If built in greater numbers their expense crowds out other necessary warship construction. The Deutschland and Japan’s large transport subs handled poorly and were vulnerable to anti-submarine attacks. Many cargo subs were converted into attack subs to replace attack-sub losses.

The one notable exception to these difficulties is “cocaine subs” so

A "narco-submarine" is apprehended off Honduras
A “narco-submarine” is apprehended off Honduras

frequently encountered by the US Coast Guard. These rudimentary stealth transports are simple and inexpensive enough to construct in austere anchorages, make little allowance for crew comfort, and have proven successful in penetrating denied US waters. The tremendous value of their cargoes means that only a few of these semi-subs need to run the blockade for their owners’ strategy to succeed.

Logistical submarine designers could potentially overcome their two primary challenges by drawing inspiration from smugglers and from nature. UUVs, like other unmanned platforms, enjoy the advantages gained by dispensing with crew accommodations or life-support

MSub's MASTT
MSub’s MASTT

equipment. Large UUVs built and deployed in large numbers, like cocaine subs and pods of whales, could transport useful volumes of cargo in stealth across vast distances. MSubs’ Mobile Anti-Submarine Training Target (MASTT), currently the largest UUV afloat, offers a glimpse at what such UUVs might look like. At 60 metric tons and 24 meters in length, MASTT is huge by UUV standards but very small compared to most manned subs.

3D printing technology is rapidly expanding, producing larger objects from tougher, more durable materials. Already, prototype systems can print multistory concrete structures and rocket engines made of advanced alloys. It will soon be possible to print large UUV hulls of requisite strength and size in large numbers. Indeed, printed sub and boat hulls were one of the first applications conceived for large-scale 3D printing. Their propulsion systems and guidance systems need not be extremely complex. Scaled-down diesel and air-independent propulsion systems, again mass-produced, should suffice to power such large UUVs. These long-endurance mini-subs would notionally be large enough to accommodate such power-plants.

10 large UUVs of 30 tons’ payload each could autonomously deliver 300 tons of supplies to forward positions in denied areas. 300 tons, while not a great deal in comparison to the “iron mountain” of traditional American military logistics, is nevertheless as much as 5 un-stealthy LCM-8s can deliver.

A “pod” of such UUVs could sail submerged from San Diego, recharging at night on the surface, stop at Pearl Harbor for refueling and continue on their own to forward bases in the Western Pacific.

Their destinations could be sea-bases, SSNs and SSGNs, or special forces units inserted onto remote islands. Cargoes could include food, ammunition, batteries, spare parts, mission-critical equipment, and medical supplies. In all these cases, a need for stealthy logistics – the need to hide the “tail” – would call for sub replenishment versus traditional surface resupply. Depending on the mission, large UUVs could be configured to rendezvous with submerged subs, cache themselves on shallow bottoms, or run aground on beaches. Docking collars similar to those used on deep-submergence rescue vehicles could permit submerged dry transfer of cargo. UUVs could also serve as stealthy ship-to-shore connectors; inflatable lighters and boats could be used to unload surfaced UUVs at night.

When confronted with anti-submarine attacks a “pod” or convoy of such UUVs could submerge and scatter, increasing the likelihood of at least a portion of their cumulative payload arriving at its destination. Some large UUVs in such a “pod” could carry anti-air and anti-ship armament for defense in place of cargo, but such protection entails larger discussions about armed seaborne drones.

A submarine – even a manned nuclear submarine – is not the platform of choice if speed is essential. Airborne resupply can deliver cargoes much more quickly. But not all cargoes need arrive swiftly. The water may always be more opaque than the sky, and larger payloads can be floated than flown. It remains to be seen if large stealthy unmanned transport aircraft can be developed.

While these notions seem fanciful there is nothing about the technology or the concept beyond the current state of the art. Large numbers of unmanned mini-subs could overcome both the capacity and expense limitations that limited the cargo submarine concept in the past. The ability to stealthily supply naval expeditionary forces despite A2/AD opposition would be a powerful force multiplier.

Steve Weintz is a freelance journalist and screenwriter who has written for War is Boring, io9 and other publications.

Find, Fix, Identify, Engage: How Today’s AUV Technology can Compress the Mine Warfare Kill Chain

By Terry Miller, Capt, USN Retired and John Rapp

A covert, in-mission, full kill chain, integrated, Mine Warfare Autonomous Underwater Vehicle (AUV) is described. It will significantly compress the kill chain beyond today’s overt detect to engage methods. It also eliminates or reduces costs associated with today’s multi-system approach. Over time, the MCM practice will inevitably evolve from overt to covert: this natural transition is discussed. The Navy asserts that time line improvements are urgently needed, but equally important is improved affordability. Cost savings for the integrated AUV are expected to be less than $5K per mine kill. The paper describes significant potential to reduce system costs using an integrated AUV solution instead of the multi-system approach of RMMV, AQS-20 and Archerfish. Such a AUV include the vehicle itself, with its associated power and propulsion and maneuvering systems, autonomous embedded intelligence, navigation system, sonar and other sensor systems, and weapon payload.

For the AUV’s primary sensor, Thales has developed the advanced SAMDIS (Synthetic Aperture sonar (SAS) Mine Detection Imaging System) which has onboard processing to autonomously detect, classify and localize stealthy mine targets with a high probability of detection and low probability of false alarm. SAMDIS processing also autonomously adapts behavior during the mission. SAS survey mode has 1.0 inch by 1.2 inch resolution out to 150 m range and multi-aspect classification mode 1.5 inch by 2 inch resolution out to 120 m range. SAMDIS’ autonomy enables a weapon payload to be added to the AUV for single sortie mine detection and neutralization. SAMDIS was fielded in FY 2014 on a 27 inch diameter TRL-9 AUV. It is an open architecture and modular system with future growth potential to incorporate new features via spiral development and it is currently in production.

A second essential technology is autonomous sonar and video perception processing. This technology has been developed both by Naval Special Warfare Center, Panama City Division (NSWC PCD) and by Thales to Technology Readiness Level (TRL) 6 and above. It is used on Autonomous Mine Disposal Vehicles (AMDV) such as Archerfish and K-Ster. This processing will be leveraged in the fire control module for a Hunter-Killer AUV to deliver a weapon or place an explosive charge.

Archerfish Mine Neutralization System
Archerfish Mine Neutralization System

A suitable weapon technology is a light-weight composite 30 mm launcher that would implant a round filled with either high explosives (HE) (for an explosive hard-kill) or reactive material (for a soft kill burn). Similar technology was developed by DTRA to counter roadside IEDs using .50 cal weapons. A 30 mm implant would be usefully larger and could integrate a 1316 compliant fusing device. Utilizing an EFI detonator enables digital fusing and affords either timed or controlled detonation, including detonation by an acoustically transmitted command. All these launch sensing, switch and fusing capabilities are currently “in-use” in penetrating darts that are already at TRL 6 and above. The launcher would weigh between 13 and 20 pounds. Its barrel could be constructed using a metal liner with composite over wrap to provide strength and rigidity while minimizing weight. To simplify the launcher and minimize weight a cartridge-less round using an electronic primer for its firing mechanism would be used. The launcher muzzle could be sealed with a frangible material that would allow it to operate at water depths exceeding 100m while allowing the projectile to be launched with minimal resistance. This launcher would be the only technology below TRL 6. However, three separate organizations 1) Naval Undersea Warfare Center (NUWC) Newport 20 mm water to water gun for torpedo defense, 2) DSG Technologies (www.dsgtec.com) and 3) AAC have matured in-water technology that operates stably using super-cavitation. A 30mm launcher provides sufficient terminal velocity to penetrate .5 inch cold rolled steel from a range of 30 feet. The key capability to penetrate and anchor a time delayed detonation device without setting off the target was demonstrated in 2014 by AAC and EMPI.

Screen Shot 2015-05-28 at 10.33.10 AM
Underwater Motion of Cavitating Core (Multipurpose Projectile) in Formed Cavity

Water, due to its density, has a profound impact upon the terminal velocity of the implant at the target; a large change in terminal velocity only needs a slight change in range. The currently achieved standoff range of 30 feet is not sufficient to ensure safety of the AUV should the shot detonate the mine. Shooting from longer ranges requires significant basic research and development, both in material strengths and in achieving precise sonar fire-control accuracies before truly safe standoff ranges are achievable. Both DSG and AAC have repeating fire 30 mm launcher concepts with a multi-kill per sortie capability. The figure illustrates the DSG 30 mm projectile.

The AUV communicates with the surface ship through radio and acoustic links for low volume tactical data; the detailed high volume sonar and navigation data are recorded onboard and downloaded post mission.

The concept of covertly mine clearing is to automatically reacquire the target, re-detect mine-like echoes in the area, and then approach using the best echoes. At a short range, the object is identified autonomously by the sonar and video perception processing; then if it is a mine, the AUV works through the risks and best approaches so as not to jeopardize the mission with any single mine kill , and would only then arm a weapon, place a charge, or fire a neutralization device. The neutralization device could provide delayed detonation if needed. The autonomy is most effective when the AUV engages multiple targets in a mission. This type of autonomy is achievable today.

An intermediate concept of operation would transition today’s overt practices into the covertly operating concept just described. In the near-term, the autonomous fire-control will send one compressed image wirelessly; that is used by an operator to assess and then commit to the target; then the operator would issue the wireless command to gate open the final arming stages that progress all the autonomous fires upon the target. The image payload is constrained by the limited bandwidth of such a wireless link. That means the autonomy must maneuver to make the best identifying image to compress and send. Methods for transmitting a still snapshot picture via an acoustic modem are already being practiced. For example, Thales has demonstrated this capability for the VAMA program in Europe.

An in-mission full kill chain integrated AUV would dramatically compress the kill chain from traditional Navy detect to engage approaches. It will also eliminate and reduce costs compared to their multi-system approach. Over time, the MCM practice will transition from overt to covert. The time line savings still need to be modeled and validated, but early estimates calculate 3000% improvement, or several orders of magnitude savings in operational time lines. Cost savings are similar because the mine kill per engagement with a 30 mm device are estimated to be less than $5K per mine kill. The reduction in system cost is potentially huge by scaling to one system that replaces the multi-system of RMMV, AQS-20 and MH-60S Archerfish neutralization placement.

Mine Kill Conop V1
Click on the image to enlarge

About the Authors

Terry Miller, Capt, USN Retired – Career Special Operations Diver with over 24 years in Mine Warfare, working for Advanced Acoustic Concepts (AAC) a joint venture company owned by DRS Technologies and Thales. He is a veteran of Desert Storm, USS Tripoli and USS Princeton mine strikes and conducted the first influence sweep in combat since the Korean War onboard USS Leader MSO 490. Terry has over 4000 hours of sonar contact time and ROV operations in combat, in training, and in simulated training against various mine shapes. He served on the Avenger MCM class as Division Officer, Executive Officer and Commanding Officer. He was the OPNAV Branch Head for Mine Warfare and ASN/RDA Acquisition Coordinator to JIDDO for Counter IED.

John Rapp – Systems engineer with 35 years experience in the defense industry, working for AAC as Director of Advanced Systems. He is a multi-disciplined inventor with 36 US patents awarded; one-third regard underwater weapons.

CIMSEC’s 2015-2016 Officers and 2015-2017 Board

Congrats to CIMSEC’s newly elected officers and board members!

If you’d like to see their goals for the org, you can see them here. The current officers and board will begin the process of turnover and transition to be completed by the end of June.

Position and Percentage of Votes of Submitted Ballots (missing percentage indicates abstentions)

Board:

Chairman, Board of Directors
Scott Cheney-Peters – 96%

Member, Board of Directors
Scott Cheney-Peters – 98%
Chris Rawley – 96%
William Allen – 80%
Mike Carroll – 84%
Mary Ripley – 90%
Andrea George – 86%
Ben Purser – 82%
Matt Hipple – 94%
Chris Wood – 80%
Jordan “Patsy” Klein – 74%


Officers:

President
Matt Hipple – 94%

Vice President
Roger Misso – 92%

Treasurer
Victor Allen – 90%

Secretary
Josh Tallis – 94%

Director of External Relations
Katherine Dransfield – 45%
Robert Holzer – 29%

Director of Membership
Bret Perry – 94%

Director of Online Content
Dmitry Filipoff – 94%

Director of Operations
Emil Maine – 96%

Director of Publications
Matt Merighi – 94%

Fostering the Discussion on Securing the Seas.