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GA-ASI’s Unmanned Aircraft Cross 8 Million Flight Hours

Monday, July 17th, 2023

>New MQ-9B SkyGuardian®/SeaGuardian® Models Add More Than 4,000 Hours

SAN DIEGO – 14 July 2023 – General Atomics Aeronautical Systems, Inc. (GA?ASI) today announced that its family of Unmanned Aircraft Systems (UAS), which includes the Predator®, Reaper, Gray Eagle, Avenger®, and MQ-9B SkyGuardian®/SeaGuardian® lines, has surpassed eight million flight hours. GA-ASI aircraft have completed 566,000 total missions in nearly 40 countries around the world.

Adding to the total are 13 MQ-9B SkyGuardian/SeaGuardian UAS that have flown more than 4,000 flight hours, including the new Protector RG Mk1 being delivered to the United Kingdom’s Royal Air Force. The first three Protectors are currently undergoing Integrated Test, Evaluation, and Acceptance trials. In addition, MQ-9Bs are being operated by the Japan Coast Guard (JCG) and Japan Maritime Self-Defence Force (JMSDF), as well as supporting various U.S. Navy exercises.

“GA-ASI continues to be a leader in developing reliable, cost-efficient, and sustainable unmanned aircraft systems that perform advanced operations for our customers around the world,” said GA-ASI CEO Linden P. Blue. “Eight million flight hours is another achievement on our list of historic firsts, which demonstrates our relentless commitment to quality.”

The exact aircraft and customer that achieved the milestone is unknown, as it’s estimated that more than 50 Predator-class Medium-Altitude, Long-Endurance (MALE) RPA are airborne worldwide every moment of every day.

GA-ASI aircraft average 40,000 hours per month, supporting programs with the U.S. Air Force, U.S. Army, U.S. Marine Corps, NASA, the Italian Air Force, the UK Royal Air Force, the French Air Force, the United Arab Emirates Armed Forces, the Spanish Air Force, the Royal Netherlands Air Force, the Indian Navy, the Polish Air Force, JCG, JMSDF, and others, with more customers coming online soon. Missions include helping protect ground units on the battlefield, supporting first responders in the wake of natural disasters, and providing critical ISR around the world. These aircraft systems continue to maintain some of the highest mission-capable rates in the U.S. Air Force and U.S. Army aircraft inventories.

GA-ASI has produced more than 1,000 aircraft and nearly 500 Ground Control Stations (GCS) in more than three decades of business. In addition to UAS and GCS, GA-ASI produces Processing, Exploitation, and Dissemination (PED) systems, as well as sensor payloads that deliver radar and video imagery, detect moving targets on the ground and over water, and provide Signals Intelligence (SIGINT) on signals of interest. GA-ASI has also developed a Detect and Avoid (DAA) system to facilitate the safe integration of unmanned aircraft systems into civil airspace in addition to combat environments.

The Predator-series family includes Predator A and Predator XP, Predator B/MQ-9A Reaper, Predator B Extended Range (ER), Guardian, Gray Eagle, Gray Eagle ER, Predator C Avenger/ER, and MQ-9B SkyGuardian/SeaGuardian.

MQ-9 Reaper Completes First Mission Using Dirt Landing Zone

Friday, June 30th, 2023

SANDERSON, Texas (AFNS) —  

Just south of Fort Stockton is one of the largest private armed forces training centers in the country, the Nine Mile Training Center — an expansive terrain offering privacy from prying eyes and the perfect opportunity to unleash the MQ-9 Reaper remotely piloted aircraft.

At this remote dirt strip in West Texas, members from the 2nd Special Operations Squadron, 727th Special Operations Aircraft Maintenance Squadron and 311th Special Operations Intelligence Squadron teamed up with Airmen from the 26th Special Tactics Squadron out of Cannon Air Force Base, New Mexico, June 15, to carve their next milestone into Air Force Special Operations Command history.

Working together, the air commandos conducted the first MQ-9 landing on a dirt landing zone.

“This is a significant achievement for Air Force Reserve Command, AFSOC, the MQ-9 community and the joint force as a whole,” said Lt. Col. Brian Flanigan, 2nd SOS director of operations. “This team of aircrew, maintainers and special tactics Airmen have proven the Reaper can operate anywhere in the world and is no longer beholden to the ‘leash’ of perfectly paved runways or line-of-sight antennas traditionally used to takeoff and land the aircraft.”

Historically, the MQ-9 has taken off and landed via line-of-sight of antennas, with aircrew members manually flying the aircraft. Now, the MQ-9 can literally takeoff and land from anywhere in the world.

Flanigan was quick to point out how this new concept meets the AFRC’s priorities of ‘Ready Now’ and ‘transforming for the future.’

“This capability will be critical in ‘tomorrow’s fight’ and nests perfectly with the Air Force’s Agile Combat Employment concept that focuses on smaller footprints, distributed operations and increased survivability while generating combat power,” Flanigan said. “We are demonstrating what is possible when you leverage citizen air commandos and our diverse backgrounds to take an existing capability like [satellite launch and recovery] and apply it to the future fight.”

The 12th Aircraft Maintenance Unit from the 727th Special Operations Aircraft Maintenance Squadron supported the effort with a very small footprint to the austere location using ACE techniques, tactics and procedures developed by the 12th AMU.

“This initiative was significant in terms of refining maintenance ACE capabilities because it provided insight into how the aircraft handles landing in an austere environment,” said Maj. Doniell Mojazza, 727th SOAMXS director of operations. “This scenario both challenged and empowered 12th AMU maintainers to assess risk utilizing their expertise and innovation to ensure aircraft air worthiness and mission success.”

The team is not only using the MQ-9 SLR capability to access short, narrow and unprepared places, but also using it in creative ways to offer ‘off the menu’ options not traditionally provided by RPAs. This was demonstrated by their use of a travel pod attached to the aircraft to execute a critical resupply of the 26th STS on the dirt landing zone.

“We call it ‘Reaper Express,’ which is essentially just using a travel pod to develop an operational concept of delivering critical items to austere locations using the MQ-9,” Flanigan said. “It may not be able to carry much, but what it can hold, might be the difference between getting that critical aircraft part to an isolated airfield or bringing in a blood supply for casualties sustained during a base attack.”

While the MQ-9 has no demand shortage with its traditional role in intelligence, surveillance and reconnaissance or its ability to quickly land and execute an engine running offload could be a secondary or tertiary mission.

“This provides options compared to waiting multiple weeks until intra-theater airlift can support,” Flanigan said. “What we’re also finding through the series of exercises we’ve executed, is that the ‘fight tomorrow’ capabilities we’ve been demonstrating is rapidly becoming a ‘fight tonight’ capability the joint force is wanting now.”

The collective contributions of active duty and Reserve members working together provided a glimpse of what is possible as transformation continues throughout the RPA enterprise.

“We are continuing to expand MQ-9 Reaper capabilities,” said Maj. Dan Carlson, 2nd SOS MQ-9 chief pilot. “The unique ability to maneuver the MQ-9 to operate anytime, anyplace is a relatively new capability and one that is transforming how we prepare for tomorrow’s fight as well as today’s.”

The certification exercise also provided a venue for intelligence analysts to contribute and further enhance the STS mission regardless of where they operate.

“We are innovating ways to provide geospatial intelligence to downrange forces,” said Capt. Courtney Cook, 311th Special Operations Intelligence Squadron assistant director of operations. “The opportunity to support this was huge for our organization.”

919th Special Operations Wing Public Affairs

Warrior East 23 – Mustang Survival x HSI

Monday, June 26th, 2023

Another technology exhibited during the ADS Maritime Demo Day is the TacHeat System developed by Human Systems Integration and integrated into dry suits by Mustang Survival. The technology stems from a SBIR program for heated gloves and relies on electrically heated coils which are embedded in the fabric.

Currently, there is a next to skin top and bottom, glove liner and insole.

Here you can see how the power cable interfaces with the next-to-skin layer.

This cable is used to pass the power cable through the drysuit.

There are currently two control boxes, with ine having a smaller form factor but less control.

The wearer can choose which components he wants to use. For example, all of the components, or just gloves and insoles for say aircraft door gunners.

Units and agencies can procure products seen at Warrior East by contacting ADS, Inc.

Navy Fields New Protective Headgear for Marine Corps Aviation Maintainers

Monday, June 26th, 2023

Three things about this new helmet for maintainers which replaces the classic Cranial.

1. It’s built by Team Wendy and based on the Exfil bump helmet.

2. This is one of the rare occasions where Marines get something first.

3. They are coming in custom colors for each of the aviation specialties, for example Red for Aviation Ordnance.

The Naval Aircrew Systems Program Office is fielding new headgear, the Head Gear Unit Number 98/Personal Use (HGU-98/P), that improves both head and hearing protection for fleet Marine Corps aviation maintainers.

The program office incorporated the latest advancements and information gained from market research, lab testing and fleet assessments to select the new Marine Corps maintenance cranial, the Team Wendy Exfil Light Tactical Polymer helmet, which is a Commercial-off-the-Shelf solution.

“The HGU-98/P provides improved impact protection and increased hearing protection, which are long overdue improvements that our maintainers deserve,” said Capt. Carey Castelein, program manager.

Since the inception of protective headgear in the 1950s, a major challenge has been to design helmets that offer the required impact and hearing protection while providing a system that provides a comfortable fit. Because flight lines and flight decks are notoriously loud, a safe and comfortable helmet is mission critical.

The new cranial comes in two sizes and an alternate H-shaped back retention system to accommodate a hair bun. The HGU-98/P also features two different styles of hearing protection, both rail mounted to the helmet, with either X4 ear cups for a slimmer fit or X5 with larger ear cups but with better sound attenuation.

“Through research, test and fleet assessments, our team was able to determine the best possible solution for improved head and hearing protection, taking into account cost, performance and user feedback,” said Jennifer Bartnick, program office team lead.

Squadrons that began receiving the HGU-98/P flight deck helmet system in October 2022 have given favorable feedback. Fielding to Marine Corps aviation units will continue through the end of the year, and the cranial with additional capability will begin delivery next year.

From the Naval Aircrew Systems Program Office

Look Back: Olive Drab, Haze Blue and Jet Black: the Problem of Aircraft Camouflage Prior to and During WWII

Friday, June 23rd, 2023

Camouflage, in the form of paint applied to aircraft, has been regularly studied and experimented with since the First World War. The use of ground-based or airborne radar to detect enemy aircraft did not have significant application until the British used it successfully during the Battle of Britain in 1940. Until that time and even after, until radar was in widespread use, visual detection of aircraft was the primary means. The Army Air Corps and the wartime Army Air Forces wrestled with a number of aircraft camouflage concepts during the pre-war and wartime years. The final standards, schemes and colors were a compromise, and balanced a number of factors. All of this work was indicative of an air arm that now contemplated the task of executing new, world-wide, missions and operations.

The basic problem of how to camouflage any object starts with the concept of visibility. An object such as an aircraft is visible because it contrasts with its background – either the sky or the ground. The contrast may be in shape, shadow, texture, color, shine (flat to gloss), movement, or any combination of those characteristics. A regular or known shape will identify an object. Shadow and contrast also define it. A light-colored aircraft on a light runway is visible because of its shadow. A dark aircraft on a light runway or a light aircraft on a dark runway is visible because of its contrast. A dark aircraft on a dark runway helps to obscure both conditions. A moving aircraft seen against the sky or against the static terrain is visible because it attracts attention. All these physical factors need to be accounted for to some degree when deciding on camouflage schemes.

Similar to other tradeoffs in aircraft design, when dealing with the practical decisions regarding aircraft camouflage, there are many alternatives to be considered. A single-color scheme is not going to be suitable for all weather and seasonal variations and regular repainting during combat operations is not practical. What works well to hide an aircraft on the ground may be the opposite of what works well for the same aircraft in flight, so a compromise is necessary. The aircraft shape cannot be changed, so experimenting with different painting designs may determine what helps to “break up” the shape and make it less conspicuous.

Paint adds weight to an aircraft which can lower the performance; however, paint does improve resistance to corrosion which reduces maintenance and lengthens the aircraft service life. The paint itself must be durable enough to withstand field use and weather/sun exposure without significant fading or chipping which would reduce the overall camouflage effect. Painting an aircraft adds both material and labor costs, as well as schedule, to aircraft production – a non-trivial consideration during the rapid mass production executed during World War II. National insignia must be applied and must be visible – in some ways defeating the main purpose of camouflage to begin with. Finally, industry must be able to produce the paint in enough quantity and to required finish specifications in order to meet the needs of the Service and a very large aircraft fleet.

As far back as World War I, camouflage schemes were considered for aircraft. One disturbing factor that moderated the search for an effective concealment approach for U.S. aircraft was a report of a high number of “friendly fire” shootdowns of Allied planes by other Allied airmen because they could not distinguish their markings. As a result, the U.S. decided to err on the side of safety adopt the U.K. practice of painting, or “doping,” the fabric aircraft with one solid color, hoping this would reduce the number of accidental shootdowns.

After WWI, the U.S. Army and Navy continued extensive, parallel, and in some cases overlapping, experiments with aircraft camouflage. The research initially was focused on dying different materials and dopes for use on fabric-covered aircraft. As these fabric-covered aircraft gradually gave way to metal-skinned aircraft in the U.S. fleet, the focus changed to evaluating different paint formulations for metal surfaces. In the late 1930s, the Air Corps experimented with a number of camouflage schemes and measured their effectiveness in limited engineering testing. Additional practical trials were then conducted with temporary finishes as part of nation-wide exercises and war games. These temporary finishes were in a wide range of blues, greens, whites, grays and even purple!

By February 1940, with the war in Europe now raging, the Air Corps embarked on a comprehensive, service-wide initiative to test “protective coloration of aircraft, both in the air and on the ground.” The Air Corps had already decided by 1940 to specify a uniform design and color for tactical/combat aircraft, so the question to be answered was, which schemes would be adopted? Several Army and Air Corps organizations, with different and specific responsibilities, contributed to the effort. This extensive study considered many of the factors previously discussed: visibility, application, national insignia, durability, cost, materials, and both in-flight and ground effectiveness. They studied both U.S. Army and Navy and British systems to arrive at the best consensus.

What resulted, in April 1942, was a general standard adopted by both the Air Corps and the Navy. On the Navy side, ship-based aircraft and flying boats would be camouflaged with Non-Specular (lightdiffusing) Medium Blue Gray on the upper surfaces and Light Gray on the undersurfaces. For the Air Corps, Army land-based planes would be Olive Drab on the upper surfaces and Neutral Gray on the lower surfaces. The Army Ground Forces also adopted Olive Drab as the basic camouflage for all of their vehicles during WWII. (Olive Drab, although it appears “green” to the eye, is technically a mixture of black and yellow, Neutral Gray is a mixture of pure black and white only).

The main categories of aircraft considered for application of camouflage were roughly: combat or combat support aircraft (such as transports), high-altitude photographic reconnaissance aircraft that operated alone or in small formations; and night fighters or night bombers which required a special degree of invisibility in the night sky. A separate sub-category of combat aircraft early in the war was anti-submarine patrol planes which needed to be hidden from surfaced submarines so they could make their approach and attack before they were detected, and the sub had a chance to submerge and escape.

During operations overseas in different theaters, local variations of standard schemes were also used. Olive Drab aircraft were also later painted with Medium Green “splotches” or “blotches” around the upper surface leading and trailing edges to better conceal them when parked. Fighters and bombers in desert regions also used colors more suited to the surrounding terrain to break up the shape of the aircraft. In some areas of the world where U.S. Army Air Forces supplies were not available, units applied British Royal Air Force colors to their aircraft, as closely approximating the U.S. standard schemes as they could.

So-called “Haze Paint” for photo-reconnaissance aircraft was an interesting problem. These aircraft normally operated at high altitude, often alone, and required them to fly specific controlled flight patterns to get the necessary photographic coverage of targets. This made them especially vulnerable to interception by fighter aircraft or ground-based air defenses. Considerable efforts on the part of the U.S. Army Air Forces and industry were expended to make these aircraft as invisible as possible through passive defense measures. The aim with this was to increase their chances of mission success. Several special formulas and techniques for haze painting were tried out, principally on reconnaissance versions of the P-38 fighter, known as the F-4 or F-5. The development and use of this special paint was probably studied more extensively than any other aircraft finish during the war. Haze Paint was intended to vary the appearance of the aircraft from blue to white depending on the viewing angle. The scheme was successful at reducing the visibility of the aircraft at high altitudes, but it was highly dependent on application method and expertise of the painter. As a result, to allow the application of these finishes to large numbers of mass-produced aircraft, a synthetic or simpler-to-produce haze paint was developed and used by Lockheed. Over time, scuffing and weathering of Haze Paint on operational aircraft reduced its effectiveness. Further, an additional drawback to sporting a haze finish is that it highlights to the enemy the fact that this is a special reconnaissance aircraft, and therefore potentially unarmed. Other than applications to a small fleet of photo aircraft, Haze Paint and synthetic Haze Paint was only used for a limited period during the war.

Night fighter paint schemes were also heavily researched, and the resulting “best approach” ended up being counter-intuitive to initial assumptions about what finish would work best to hide the aircraft from ground or air observation and reflection of search light beams. After extensive testing on many airframes, it was determined that either a glossy black finish or a standard Olive Drab was actually more effective at this objective than a flat black finish. This was standardized by 1944, when it was directed that all night fighters (P-61s, P-70s and later P-38Ms and P-82s) were to be painted with glossy black and, if possible, polished to a mirror-like finish. (The specification for this gloss black was Jet Finish No. 622, probably where we get the name “Jet Black”). Because of their unique mission, night fighters were the notable exception to the late war AAF directive to cease camouflage painting. In fact, night fighters remained in their glossy black finish even through the Korean War, after which the mission ceased, and the aircraft left the USAF inventory.

Because the Atlantic U-Boat threat to the U.S. East Coast and Great Britain was so immediate, significant resources were put against finding an effective paint scheme for sub-hunting aircraft. The main threat to the aircraft in this mission was not from enemy aircraft, but rather surfaced submarines. The working assumption for these studies was that the aircrew had no more than 30 seconds to strike a sub on the surface before it executed a crash dive. This made visual “stealth” essential. After a series of tests of different finishes at various altitudes, sky conditions and viewing angles, the optimum scheme proved to be: Insignia White on the undersurfaces, leading edges and sides of the aircraft and either Olive Drab or Neutral Gray on the top surfaces. Variations of this specific type of camouflage for the submarine search mission were used by both the U.S. and the U.K. and proved effective for allowing the patrol aircraft approaching from head-on to avoid detection until the last possible moment – and strike submarines on the surface before they had a chance to escape below the surface. The scheme was clearly specified to be used only on aircraft that operated in a theater where “no enemy air opposition is to be expected” because this new design was not optimized for air-to-air concealment.

A special technical concern arose during the war involving detection by infrared (IR) photography. IR aerial photography could be employed to detect and defeat camouflage and “see through” natural haze to find objects on the ground. This technology was still in the early stages, but enough of a concern that the AAF examined families of paints and finishes that would frustrate infrared detection. By July 1942, this work eventually led to the development and application of a special shade of “high infrared-reflecting Olive Drab,” (based on a chromium oxide pigment) that promised the highest degree of protection against IR photography. Aircraft upper surfaces were to be painted with this new finish to mask them from detection by enemy aerial reconnaissance. During the period, the USAAF sourced aircraft paint from as many as a dozen or more different suppliers to ensure they had sufficient stocks on hand to cover the vast wartime fleet.

Throughout the war, there was a continual debate over the overall value of camouflage finishes versus leaving the aircraft in natural metal or unpainted, which offered a bit more extra speed due to either polishing of the surfaces or reduction in weight. There is a speed penalty imposed by rough painted surfaces that increases aircraft drag contrasted against smooth polished metal.

Within the USAAF, there was never a consensus about which property was more important— concealment or speed – so instead they settled the issue by directing that manufacturers cease camouflaging most combat aircraft as of 1943. This instruction applied to most combat aircraft, except some tactical fleets, such as transports or gliders. In light of the progress of Allied forces it also made sense operationally – air superiority over the battlefield was now changing over from Axis to Allied air forces; German progress in radar surveillance and detection made visual concealment less vital, especially in the case of large fleets of hundreds of strategic bombers daily hitting the Third Reich. Additionally, Allied bases in the U.K. and on The Continent were less threatened by surprise air attack because of our own radar coverage. The AAF summarized the situation in April 1943, “Due to the early warning and vectoring capabilities of radar, camouflage is losing its importance when weighed against the cost in speed and weight.” Some local commanders in the Pacific still felt camouflage was necessary for use in some geographic areas.

Reducing the aircraft weight and increasing performance was now offered a better tactical advantage to fighters and bombers. The piston-driven fighter aircraft particularly needed all the speed they could get to deal with the threat from the German jets. There was also the secondary benefit of reduced cost and production time, which facilitated quicker replacement of lost airframes.

Ironically, in spite of all the years of studies and experimentation, at the end of the conflict in 1945, camouflage finishes had almost entirely disappeared from USAAF and then USAF aircraft through the 1950s. By then, radar detection had almost totally eclipsed visual means. Camouflage finishes only made a significant reappearance after operations in Southeast Asia in the 1960s brought back the need to conceal aircraft against the jungle terrain in that particular theater.

The majority of the text for this Look Back is adapted from the Air Materiel Command Historical Study No. 115., Case History of Camouflage Paint, Volumes 1 and 2, January 1947 (research completed to November 1945.) For Further Reading: Bell, Dana: Air Force Colors, Volumes 1, 2, 3., (Nos. 6150, 6151, 6152.) Carrollton, TX: Squadron/Signal Publications Inc. 1979-1980.

 By Brian J. Duddy

Air Force Materiel Command History Office

Full Text:  media.defense.gov/2023/Jun/21/2003245250/-1/-1/1/LOOKBA_1.PDF/LOOKBA_1

Sikorsky Celebrates 100th Anniversary by Highlighting its Enduring Support of Missions in Europe at Paris Air Show

Monday, June 19th, 2023


In 1967, two Sikorsky HH-3E search and rescue helicopters made the first non-stop helicopter flight across the Atlantic Ocean from New York, over London and finally to Le Bourget during the 27th Paris Air Show. Sikorsky founder Igor Sikorsky (right) and his son, Sergei Sikorsky welcomed the U.S. Air Force crew. Sikorsky, a Lockheed Martin company, celebrates its 100th anniversary this year. Images courtesy of the Sikorsky Archives.

PARIS, June 19, 2023 — Sikorsky, a Lockheed Martin company (NYSE: LMT), will celebrate its 100th anniversary during the Paris Air Show at Le Bourget this week emphasizing the deep and enduring relationship and the ongoing mission readiness and operational success shared by Sikorsky, its workforce in Poland and its commercial and defence customers across Europe. View the centennial video.

Sikorsky’s history crosses paths with Paris Air Show: Fifty-six years ago, two Sikorsky HH-3E search and rescue helicopters — the first air-refuellable helicopters built — made the first non-stop helicopter flight across the Atlantic Ocean from New York, over London and finally to Le Bourget during the 27th Paris Air Show.

“Today Sikorsky helicopters around the world regularly make long-range flights in some of the toughest conditions,” said Paul Lemmo, Sikorsky President. “Those HH-3E flights in 1967 — with refueling supported by a Lockheed HC-130P Hercules tanker — were a testament to the ingenuity and innovation that began 100 years ago with our founder Igor Sikorsky. Innovation is central to our 21st Century Security mission of supporting our customers with systems to address their most difficult challenges.”

“I was there with my father to welcome the crew of the U.S. Air Force’s HH-3E, the original ‘Jolly Green Giant,’ when it arrived at Le Bourget,” said Sergei Sikorsky, one of Igor’s sons who lived in Germany supporting the country’s CH-53G heavy-lift helicopter program starting in 1972. “On the flightline at Le Bourget, we watched the first HH-3E perform a flawless refueling demo with a HC-130P Hercules tanker and then land 30 hours and 46 minutes after it left New York.”

The aircraft traveled 4,270 miles at about 131 mph before landing at 1:53 p.m. local time on June 1, 1967, at Le Bourget. The second HH-3E, which took a slightly altered path so it could clock the New York to London record, landed about 12 minutes later.

The Expanding Black Hawk Legacy

Sikorsky aircraft have supported missions in Europe for decades. For example, the German Armed Forces have operated CH-53G heavy lift helicopters in Germany and during missions all over the world for more than 50 years. Sikorsky’s proven reputation as the world-leader in reliability, safety and mission effectiveness carries on today in Europe with the growing fleet of Black Hawk and MH-60R Seahawk helicopters, as well as with the future opportunities with X2™ aircraft and the CH-53K® heavy-lift helicopter.

The Hawk continues to welcome new customers in Europe. Twenty years ago, Austria became the first European country to operate Black Hawk when Sikorsky delivered nine UH-60L to the Bundesheer.

In Poland, Lockheed Martin’s PZL Mielec has been designing, manufacturing and servicing aircraft and helicopters for over 85 years. The company’s 1,500 employees will deliver the 100th S-70 Black Hawk multi-role helicopter from its production facility later this year. This comes after Sikorsky proudly delivered its 5,000th Hawk helicopter in January.

“The multi-mission Black Hawk provides critical capabilities that will strengthen readiness, interoperability and security across Europe for decades to come,” Lemmo said. “We continue to invest in Black Hawk modernization to provide operators with the reliability, versatility and growth they require to deter threats, integrate with the global fleet and support national security.”

Sikorsky S-92 and S-76 helicopters are also used for civil and commercial missions in Europe including VIP and head-of-state transport, oil and gas, and search and rescue. Thirteen S-92 helicopters support head of state missions globally and two S-76s have been providing air transport for the British Royal Family for more than two decades. There are 100 S-92 helicopters operating in the North Sea and supported by Sikorsky forward stocking locations in Norway and Scotland.

For additional information, visit our website: www.lockheedmartin.com/sikorsky.

U.S. Navy Selects 28 Top Students for Summer Flight Academy Program

Sunday, June 11th, 2023

While some students will spend this summer doing odd jobs or hanging out with friends, 28 high-performing 11th and 12th graders from throughout the country will complete an intensive eight-week U.S. Navy Summer Flight Academy aviation program. Upon completion of the program, each student will earn a private pilot certification and college credits from Delaware State University (DSU), Elizabeth City State University (ECSU), or D2 Aviation School. During the eight-week Summer Flight Academy, each student will receive classroom aviation academics, and approximately 40 hours of flight training in either a Vulcanair V.10 single-engine aircraft or Piper Warrior (PA-28).

The program was established in 2021 by Commander, Naval Air Forces (CNAF) to increase diversity in the field of aviation. The Navy partners with select universities throughout the country to provide the flight training to the participating students who were selected out of hundreds of applicants for the competitive program. The cost of the program is approximately $26,000/student, but is offered at zero cost to the student, and with no obligations. Most of this year’s CNAF Selects are from demographic groups that are historically underrepresented in the field of aviation, with an equal male/female split. The 2023 class also boasts multiple First-Generation-Americans who are leaders in their JROTC programs, and hope to serve their country by one day flying for the U.S. military. CNAF is proud of the international representation from this year’s cohort, which features Cadets with ties to Japan, Iran, Nigeria, India, Ukraine, and the Philippines.

The Department of the Navy sponsors the Summer Flight Academy program for students participating in Navy and Marine Corps Junior Reserve Officer Training Corps. The program is a new STEM initiative that was selected for funding by the Naval STEM Coordination Office – located at the Office of Naval Research – which oversees investments in STEM education, outreach, and workforce initiatives.

“The primary goal of the CNAF Flight Academy is to expose diverse, young talent to Naval Aviation, and inspire them to join the profession,” says LT Olivia Barrau, E-2C Hawkeye Naval Flight Officer, CNAF Operations Officer for Diversity, Equity, and Inclusion, and CNAF Flight Academy Program Manager. “For these motivated students, flying a plane and completing this program can empower them to consider Naval Aviation as a viable career choice. While we hope all our Cadets join Naval Aviation, we proudly contribute to their dreams of becoming aviators in any capacity.”

CNAF Flight Academy graduates from 2021 and 2022 now represent the program at all three Service Academies (USNA, USAFA, and USMA), and ROTC units and universities across the country at places like Morehouse College, Tuskegee University, Embry Riddle Aeronautical Institution, Virginia Technical Institute, Delaware State University, Ohio State University, Arizona State University, and Hampton University. Roughly 70 percent of the program’s alumni are now directly affiliated with the U. S. Military, mostly through commissioning programs.

2023 CNAF Summer Flight Academy Cadets

Delaware State University

Aliya J. Applin – Peachtree City, GA

Abdulmalik O. Aremu – Silver Spring, MD

Kianet Badal – Woodland Hills, CA

Hannah M. Bartlett – Allen, TX

Leland W. Boxer – Manassas, VA

Eli Boyd – Lorton, VA

Jackson D. Coberley – Okinawa, Japan

Jonathan R. Gerges – Mt. Juliet, TN

Sophia J. Ivchenko – Cypress, TX

Reva D. Jogdand – Richmond, TX

Caleb T. Payne – Portsmouth, VA

Nickole S. Rios – Allen, TX

Orianna M. Russell – San Diego, CA

Jeffrey T. Strader – Greensboro, NC

Jake M. Tirado – Madisonville, LA

Ryan K. Tran – Avondale, AZ

Tahirah L. Tyler – Hampton, VA

Skye A. Uyeda – Poway, CA

Cecilia R. Winters – Waco, TX

John D. Zeveney – Red Bank, NJ

 

Elizabeth City State University

John Lawrence R. Austria – Dededo, GU

Keisha C. Carlos – Dededo, GU

Isabella M. Hauri – Peoria, IL

Ryan J. Inge – Yorktown, VA

 

D2 Flight School

Taylor R. Carroll – Allen, TX

Alexandra S. Tibbets – Dayton, TX

Alfred J. Armstrong – Anderson, SC

John L. McGee – Dover, NH

 

509th Weapons Squadron Supports SOF exercise, Prepares for WSINT

Sunday, May 28th, 2023

Airmen from the 509th Weapons Squadron integrated with the 14th Weapons Squadron providing air refueling for a special operations forces exercise at Hurlburt Field, Florida, May 7-10.

The purpose of the training for the 509th WPS was to expose its students to the Special Operations mission set and to prepare its students for their large-scale Weapons School Integration capstone exercise where all weapons schools come together and perform peer-to-peer combat to perfect their skills.

“The tanker’s mission means that it’s always an asset that is integrated with other operations,” said Lt. Col. Ian Shelley, 509 WPS commander. “This exercise allows our students to integrate with the special operations mission set. They develop tanker tactics to best support air players who are providing air support to ground units. They integrate not only with air players, but with Army and Navy ground units.”

The exercise also provided the 509th WPS Airmen a chance to integrate with other weapons squadrons and their weapons systems to execute the mission. Some units that also participated in the training include the 14th WPS AC-130J Ghostriders, MC-130J Commando IIs, U-28 Dracos, and CV-22 Ospreys.

“SOF operates in a unique manner, one that most of our students haven’t experienced before,” Shelley said. “The integration opportunity provides tanker and SOF units with a broader set of tools preparing them for future combat operations.”

One of the key points of the training included the students having to work together to create an effective mission plan in order to meet the objective of the exercise.

“Not only did the students plan air refueling and fly the KC-135, we also had students who planned and witness tilt rotor air refueling on board an MC-130 and we had others who were heavily integrated in forward arming and refueling point operations whereby the lessons learned can be applied to future agile combat employment operations,” Shelly said.

The 509th WPS is one of 21 weapons squadrons and is the only weapons school for the KC-135 Stratotanker, with a mission of providing the world’s most advanced training and tactics to pilots, navigators and inflight refueling specialists.

“We develop aviators who are steeped not only in peer threats and tanker tactics, but also critical thought and problem solving,” Shelley said. “Their expertise in other platforms and mission sets makes them experts in employment operations.”

Training for the 509th WPS is designed to prepare Airmen to analyze and apply appropriate tactics to possible pacing threats, and ensure they are ready for tomorrow’s fight anytime, anywhere.

Story by SSgt Lawrence Sena, 92nd Air Refueling Wing Public Affairs