Showing posts with label Australia. Show all posts
Showing posts with label Australia. Show all posts

Thursday, 30 March 2017

RNZAF 80th Anniversary Air Tattoo

The Royal New Zealand Air Force (RNZAF) celebrated its 

80th anniversary with an

Air Tattoo at RNZAF Base Ohakea 

 25-26 February 2017.





The two day event focused on military aircraft and featured an international Air Force contingent.Aircraft from a number of nations were present. What a feast for aviation enthusiasts.

The event also showcased the Black Falcons aerobatic team flying the T-6C Texan trainers, and many static displays that provided an opportunity to see, and understand, the work of the New Zealand Air Force.


RAAF F18 taxi at Ohakea

I attended with the Jensen Family. Wayne and Sarah came down from Auckland, Sarah's dad came up from Wellington, and George, a retired pilot himself lives in Kapiti. I went completely snap-happy, and wandered around in a contented daze, giving my shutter finger a workout like it has not had in some time. Thank goodness for digital photography. In the old days I would have needed a trailer for all the film!


I too so many photos that it may be best to share them in batches. When the camera's second battery eventually died, I had to switch to my cellphone, which also eventually surrendered under the onslaught. Thought 'd share a couple of photos and some video first !


   





F18s coming to rest


Thursday, 19 June 2014

Aussie Mirage III's: The Mirage III O


Being a long-time Mirage fan, I was (pleasantly) surprised to learn that Austalia, like South Africa had operated and built Mirages under licence from Dassault in France


A3 Dassault Mirage III

The search for a Sabre replacement began in the 1950s, and when a joint evaluation team from the Departments of Air and Supply visited Europe and North America in 1960, the Dassault Mirage III emerged as their selection over the Lockheed F-104 Starfighter.

Built by the French firm Generale Aeronautique Marcel Dassault (GAMD), the Mirage I flew on 25 June 1955, followed the following year by the prototype Mirage III. Having selected the Mirage, the RAAF then had to decide on the power plant, and with the Rolls Royce Avon already in service powering both the Sabre and the Canberra, this option was pursued for the Mirage. A French Mirage IIIA, known as 'City of Hobart', was fitted with an RB146 Avon 67 turbojet and flew on 13 February 1961. This was known as a Mirage IIIO, but did not receive a RAAF serial number as, although this modification delivered superior performance, its cost was prohibitive and this project was discontinued.


Having selected the French SNECMA Atar 9C engine, the first RAAF aircraft, numbered A3-1, flew at Bordeaux on 14 March 1963 and was handed over to the RAAF at Villaroche, near Paris, on 9 April. This definitive IIIO was similar to the French Air Force Mirage IIIE. While A3-1 was flown to Australia by Hercules, the second French-built aircraft, A3-2, remained in France until August 1965 to test the various RAAF modifications. Meanwhile, two further aircraft were shipped to Australia as fully-equipped major assemblies and completed at Avalon by the Government Aircraft Factories (GAF), the Australian prime contractor. The first of these, A3-3, was flown by Squadron Leader (later Air Vice Marshal) Bill Collings at Avalon on 16 November 1963.


Gradually the French content was reduced, with GAF subcontracting the wings, tail and engine to the Commonwealth Aircraft Corporation (CAC), and by aircraft A3-16 the first Australian-built primary parts were incorporated. The first order in December 1960 for 30 aircraft, A3-1 to A3-30, was followed in 1962 by an order for a further 30, A3-31 to A3-60. In 1963 the order was increased by another 40, A3-61 to A3-100, followed by 10 two-seat trainers, similar to the French Mirage IIIB, and designated IIID, A3-101 to A3-110.

Following the two French aircraft, the first 48 Australian-assembled aircraft (A3-3 to A3-50) were built as Mirage IIIO(F) interceptors and No 2 Operational Conversion Unit (2OCU) at Williamtown began receiving deliveries in 1964. No 75 Squadron became the first operational unit to equip in 1965 followed by No 76 Squadron in 1966. The next 50 aircraft (A3-51 to A3-100) were built as IIIO(A) ground attack variants with slightly different radar and the addition of doppler navigation and radar altimeters for low-level operation.

In 1967 No 75 Squadron deployed to Malaysia to replace No 3 Squadron. No 3 Squadron then became the first unit to equip with the ground-attack Mirage under Wing Commander Jake Newham, who was later to be Chief of Air Staff. When No 3 Squadron returned to Butterworth in 1969, No 77 Squadron re-equipped and became the fourth RAAF Mirage squadron.

The first two-seater Mirage IIID, A3-101, flew on 6 October 1966 and was accepted by the RAAF at Avalon on 10 November, followed by a further nine over the next year. The trainer version did not have the Cyrano II nose radar; a second cockpit was added behind the first and the avionics equipment previously stored there was relocated in the nose. The Mirage trainers were assembled by GAF from imported French-built fuselages and CAC-built wings and vertical tail surfaces.

In December 1970 the government approved the procurement of six additional Mirage IIID trainers at a cost of $11 million. These aircraft, A3-111 to A3-116, delivered from August 1973 to January 1974, enabled the retirement of the Sabre from operational fighter training.

An anomaly in Mirage deliveries occurred with A3-26. This aircraft was retained in France by Dassault from 1965 to 1968 as a trials installation for the IIIO(A) standard. The aircraft was finally delivered to 2OCU in November 1968 and the following June it was decided to convert the remaining IIIO(F) aircraft to the IIIO(A) standard for the ground-attack role.

With defence cuts under the Whitlam Government, No 76 Squadron was disbanded amongst much ill feeling in August 1973. The remaining three squadrons continued operating the Mirage in air defence and ground attack, based at Williamtown and Butterworth. Several Mirage aerobatic teams were also formed during its service with No 77 Squadron. Best known were the Deltas in 1971, followed by the Miracles in 1976 and a three-aircraft team of red, white and blue aircraft organised for the 1981 air shows. Basing of aircraft extended to Darwin in 1983 when No 75 Squadron relocated from Butterworth.


As 2OCU began to work up for the F/A-18 Hornet in 1984, all Williamtown-based Mirages were transferred to No 77 Squadron, with some 40 of the type on strength. This must have made No 77 Squadron the largest fighter squadron ever in the RAAF. No 77 Squadron finally relinquished their Mirages for Hornets in November 1987. In March 1986 No 79 Squadron reformed at Butterworth from No 3 Squadron, as the latter began conversion to the Hornet. No 79 Squadron operated the Mirage until disbanding in April 1988, leaving No 75 Squadron at Darwin and Aircraft Research and Development Unit (ARDU) at Edinburgh as the remaining operators. In early September 1988, No 75 Squadron flew a formation of Mirages over the east coast state capitals as a farewell gesture before the aircraft ceased squadron operations on 30 September. In October the remaining No 75 Squadron Mirages were ferried to Woomera and so, appropriately, this squadron, which was the first to equip with the Mirage in 1966, was the last to operate it.

The last RAAF Mirage flight was on 8 February 1989 when A3-101 was flown from ARDU at Edinburgh to Woomera to join 47 of the type in storage pending their disposal. In 1990 Pakistan purchased fifty RAAF Mirages, including two which had been stored at Point Cook, and these have now been delivered to the Pakistan Air Force, where some will undoubtedly fly for many years to come.

The Mirage saw longer service in the RAAF front line than any other fighter. Despite the original estimated design fatigue life of only 1500 hours, some Australian Mirages flew over 4000 hours. Over forty aircraft were lost in flying accidents, but those who flew it held the type in high regard. Although the 'Miracle' has left our skies, many examples remain on display at museums around Australia.

Attached Image

Like so many Mirage IIIs, now designated to the scrapyard:
Death in a Pakistani boneyard for one RAAF Mirage III

TECHNICAL DATA: Dassault/GAF Mirage IIIO

DESCRIPTION:
Single-seat interceptor/ground attack fighter.

POWER PLANT:
One 6200 kg (13 670 lb) thrust SNECMA Atar 9C turbojet with afterburner.

DIMENSIONS:
Length 15.03 m (49ft 4in); wingspan 8.22 m (27 ft); height 4.5 m (14ft 9in).

WEIGHTS:
Empty 7049kg (15 540 lb); max 13 699kg (30 200 lb).

PERFORMANCE:
Max speed Mach 2.2; Mach 1.14 (1390 km/h) at sea level: ferry range 3862 km (2085 nm).

ARMAMENT:
One Matra R530 and either two Sidewinder AIM-9B or two Matra R550 Magic air-to-air missiles and twin 30mm DEFA cannon. Ground attack weapons such as six Mk 82 227 kg (500 lb) bombs or three GBU-12 laser-guided bombs.


Dassault Mirage III A3-92

Selected to replace the Avon Sabre as the RAAF's fighter aircraft in 1960, the Mirage was the first aircraft in RAAF service capable of flying at twice the speed of sound. Entering operational service during 1965, the Mirage served as the front-line fighter until 1988, making the aircraft the longest-serving fighter in RAAF history. Built under licence in Australia by the Government Aircraft Factories (GAF), 100 single-seat and 16 two-seat Mirages were operated by seven RAAF units.

The first Australian-assembled Mirage flew at Avalon airfield in March 1963, and this and the following 48 aircraft were built as Mirage IIIO(F) interceptors. Following aircraft A3-50, production switched to the Mirage IIIO(A) ground attack aircraft with slightly different equipment for this role. In June 1969, the IIIO(F) aircraft were modified to the ground attack standard, to increase commonality within the Mirage fleet.


Now a gate guard at RAAF Wagga Wagga
             
In RAAF service, the Mirage operated with Nos 3, 75, 76, 77 and 79 Squadrons, as well as No 2 Operational Conversion Unit and the Aircraft Research and Development Unit, from bases across Australia and also at Butterworth in Malaysia. With the acquisition of the F/A-18 Hornet in 1985, the Mirage was phased out of service, and in October 1988 the last Mirages of No 75 Squadron were ferried to Woomera for eventual disposal.

After the cessation of Mirage operations, a number of aircraft were retained by the RAAF as training aids. This aircraft, A3-92, was one such aircraft and was used at the RAAF School of Technical Training at Wagga Wagga before transfer to the RAAF Museum for preservation.

Delivered from the GAF airfield at Avalon, Victoria, on 26 July 1968, A3-92 served with Nos 3 and 79 Squadrons at Butterworth, Malaysia, and No 77 Squadron at Williamtown, New South Wales. Withdrawn from service in May 1987, the total airframe time for the aircraft was 4037 hours.

Sources Wikipedia, Net, RAAF website. No copyright infringement intended, merely a fan blog. Happy to credit or remove content at request

Mirage III: More info and SAAF service (Click to follow links)

Mirage III in SAAF Service Part 1
Part 2: Progeny The Cheetah and Kfir

The Mirage F1 (click to follow links) 
Part 1 History of the F1
Part 2 The Border War: F1s in Combat
Part 3 Combat record and First Hand Account (Arthur Piercy)



Tuesday, 25 March 2014

Was MH370 a Ghost Flight?

Did MH370 Fly on autopilot until its fuel ran out?

Theories abound about what happened to MH370 and why it (probably at this stage) ended up in the drink. Having discussed the situation with experienced pilots and ATC crew, I started wondering if sudden incapacitation had overcome the pilots while they were still entering co-ordinates for a return to the closest Malaysian Airport capable of allowing a 777 to land (Langkawi Island)

My theory (and that of others, by the look of things) was that some catastrophic event rendered both pilots and crew unconscious or dead, (likely the same fate for the passangers) and the plane simply flew on on the programmed heading, on autopilot, until the fuel simply ran out. Pilot suicide in this fashion simply makes no sense to me. I think it was a ghost flight:



It would have taken less than a minute for the pilots, passengers and crew aboard MH370 to lose consciousness and have their fate sealed if the cabin experienced a catastrophic loss of pressure and became what is known as a "ghost flight".

It would not be the first time that a flight has flown for hours with all those on board unconscious before crashing. Opinion from the Sydney Morning Herald:


Payne Stewart :

In 1999, American golfer Payne Stewart was among six people on a Learjet that took off from Orlando, Florida bound for Dallas, Texas who died after a sudden loss of cabin pressure deprived them of oxygen.

Despite the pilots being incapacitated, the plane flew on auto-pilot for a further four hours before running out of fuel and crashing into a field in South Dakota, more than 2250 kilometres off-course.

Six minutes into the flight, the alarm was raised and the Learjet was monitored by two F16- fighters but nothing could be done to save the plane.

Helios Airways Flight 522

Flight 522, a Boeing 737, was initially feared hijacked in 2005 when it crashed into a mountain in Greece leaving 121 dead. A crash investigation revealed that the pilots had succumbed to hypoxia and had mistaken a pressure warning signal and lights for other safety alerts.

A flight attendant who had pilot training and was able to stay conscious, tried unsuccessfully to control the plane before also passing out. The plane stayed in the air for two more hours before running out of fuel and crashing. Autopsies found that the passengers had been alive but could not establish whether they were conscious at the time of the crash.

WA mine workers

Five years earlier, in 2000, a Beechcraft King Air 200 took off from Perth to transport workers to a mine in Leonora but after less than 30 minutes began to climb too high, setting off alarms with air traffic controllers. The pilot asked the control room to "stand by" and then, it was later concluded, promptly passed out from hypoxia.

Air traffic controllers could do nothing but watch as the plane, transporting mine workers, flew across the country on auto-pilot for about five hours before running out of fuel and crashing in Queensland, killing all eight people on the plane.

Bo Rein

In 1980, a football coach Bo Rein and pilot Louis Benscotter were aboard a twin-engine Cessna 441 in Louisiana when it inexplicably began climbing above its planned flight path's altitude and lost all contact.

The plane flew on for more than 1600 kilometres, apparently on auto-pilot, before crashing into the Atlantic Ocean. Investigators believed a problem with the plane's oxygen supply had rendered the pair unconscious.


Hypoxia

1. How long would someone have to put on an oxygen mask before passing out?

University of New South Wales head of School of Aviation Jason Middleton said that at 35,000 feet a person would have a minute or less to put on an oxygen mask before becoming unconscious.

2. How much oxygen would be available?

Passenger oxygen masks automatically drop if there is a loss of cabin pressure. Professor Middleton said passengers would have about 10 minutes supply of oxygen while the pilots descended to 10,000 feet as quickly as possible, at which point it is safe to breathe without an oxygen supply.

Professor Middleton said MH370s' pilots would have had enough oxygen for about 30 minutes. But he said it had been shown that stress could make people consume oxygen four to five times faster than if they were calm. Crew also have access to portable oxygen tanks that allow them to move within the cabin and help passengers.

3. How long can auto-pilot work for?

An Australian commercial pilot, who did not want to be named, said the auto-pilot system would work until a plane's fuel ran out. The pilot said when the engines began to fail from lack of fuel, a system that is powered by air would keep the plane going for a short time longer before finally crashing.

4. Would those on board have known if there was a loss of cabin pressure?

The commercial pilot said if there was a loss of pressure in the plane the first thing a pilot would do would be to don their oxygen masks, which would take three to four seconds.

They dismissed some MH370 theories that had suggested the pilots may not have put on their oxygen masks to ensure they could see if there was smoke from a fire, as pilots' oxygen masks have smoke hoods and can be purged to ensure their vision is kept clear.

The pilot said if there was a slow leak there would be numerous warning signs, including a loud siren if the plane got to 10,000 feet without enough pressure. They said there was no way the pilots could have flown without being aware that there had been a loss of pressure and even if there was an explosion of some sort, the pilots could hold their breath while making a rapid descent.

Professor Middleton said making an emergency descent due to depressurisation was part of standard training for commercial pilots. Checking oxygen supplies is also a mandatory part of pre-flight safety checks.

But wait, it gets worse:

Of all the various theories to have emerged about the disappearance of Malaysia Airlines flight MH370, this could be the most terrifying yet: 

Aviation experts have raised the possibility that, if the flight's pilots had become incapacitated, the passengers and cabin crew may have flown for seven hours aware that there was a problem but unable to raise the alarm .

That's because the reinforced cockpit door, designed for maximum security, would have stopped staff or passengers from getting into the cockpit to make contact with the outside world. 

No emergency communication system existed in the cabin of the plane, Fairfax Media has been told. Mobile phones may have been out of range, and the satellite phones which existed in business class could have been disabled, either purposefully or accidentally, by the same incident that eliminated the plane's tracking systems.

''There are no communications available from the cabin to the ground ... only from the cockpit," said Professor Jason Middleton, head of University of New South Wales School of Aviation.

Professor Middleton said post 9-11 security measures meant passengers and crew were isolated from the outside world if a plane's pilots were out of action, whether by their own or someone else's intention or through some sort of emergency.

''It's the modern world [that says] the only way to protect against illegal activities and hijacking is for the pilots to be safely ensconced so no one can get at them and no one can get at the systems.''

Professor Middleton said the approach usually worked but that so far flight MH370 had proved to be an "unprecedented case".

The flight path of the doomed Malaysia Airlines jet, established by British satellite company Inmarsat through the plane's "ping" data, has shown that it flew for more than seven hours after it turned back from its scheduled flight path over the South China Sea on March 8.

An Australian commercial pilot, who did not want to be named, said flight MH370 would have had a reinforced cockpit door for security reasons. If the crew could not access the cockpit they would have been helpless without the pilots. "There is no way they could raise the alarm," he said.


American airline pilot and aviation author and blogger Patrick Smith also told Fairfax Media that if for any reason the pilots were unconscious or incommunicado, there would have been no way the for the crew to tell anyone.

There has been much speculation as to why no phone calls or messages were received from passengers or crew on the missing flight. But Smith said the lack of calls did not necessarily support the theory because unless a plane was flying low and within range of a mobile phone tower, mobile phones would not work.

Vincent Lau, an electronics professor specialising in wireless communications at Hong Kong University of Science and Technology, also told the New York Times that the altitude of the plane might have meant mobile phones could not connect with ground stations.

According to the Malaysia Airlines website, in-flight entertainment systems in business class on a Boeing 777-200, the model of flight MH370, are equipped with satellite phones.

Smith said that this entertainment system could, however, be disabled as was the jet's transponder and Aircraft Communications Addressing and Reporting System (ACARS). No one yet knows how and why these systems were not working.

Thursday, 30 May 2013

Stealth Drones: Taranis emerges

Taranis: A New Breed of Stealth UACV

It can fly faster than the speed of sound, cannot be detected by radar and has no pilot. 

Looking like something out of a SciFi movie head on, BAE unveiled it's stealth weapon a year or two ago. Now it's ready for testing in the Aussie outback, away from prying eyes...


  
This is the new robotic plane that will become the next generation of front line bombers for the British military.



The drone, which is named Taranis (Celtic Thunder God  - i.e Norse Thor) , has been designed to fly intercontinental missions to attack targets and can automatically dodge incoming missiles.
The aircraft, which has cost £125 million to build, is intended to be the first of a new generation of planes that will reduce the need to risk human lives on long, dangerous missions.
It is to be flown for the first time in a series of tests over the Australian outback in the spring in an attempt to demonstrate the technology to military chiefs.

Currently the Royal Air Force uses Tornado GR4 bombers as its front line strike aircraft, although the Typhoon Eurofighter is expected to replace it in the coming years.
Remote controlled drones such as the US Reaper are also used by the Ministry of Defence and US military to attack targets.
Taranis is expected to provide a prototype of a new kind of bomber that will replace piloted planes and the current drones.

With a shape more similar to the US B-2 Stealth bomber, it intended to fly automatically using an on-board computer system to perform manoeuvres, avoid threats and identify targets. Only when it needs to attack a target will it seek authorisation from a human controller.
Nigel Whitehead, group managing director of programs at BAE Systems, which has been developing Taranis, said the new drone could change the way aircraft are used by the MoD in the future, which currently uses manned planes for combat missions.
The Taranis uses stealth technology, including a highly secretive coating that helps it slip through radar undetected. It will be able to carry a series of weapons on board including missiles and laser guided bombs.

The use of drones, however, has come under intense criticism from human rights groups, who claim their use as weapons contravenes international laws as often innocent targets can be killed.
The Reaper and Predator drones currently used by the British and US military are operated by remote control using pilots based at a command centre. Although they fly relatively slowly, with a maximum speed of 287 miles per hour, less than half the speed of sound, their ability to perform “hunter-killer” missions or support ground troops in Afghanistan without risking human pilots has seen them increasingly used.

Unmanned aircraft are now being seen as a way of producing planes that can fly further, faster and higher than is currently possible with human pilots, who can grow tired or blackout in manoeuvres that produce high g-forces.
There are concerns, however, that as drones are made more autonomous, they will pose more of a risk if they go out of control and leaving computers to make life or death decisions is highly controversial.
Taranis, however, will still rely on instructions from a central command centre before attacking targets.
The tests on Taranis, which is powered by a Rolls-Royce Adour 951 engine used on Hawk training jets, will see it flying a simulated mission where it must automatically avoid unexpected threats such as ground to air missiles and seek out potential targets.
Once identified, the operators will send instructions to Taranis to attack the targets before performing a flying past to confirm the damage and then landing safely.
Taranis is the first of its kind in the UK. Unmanned Air Vehicles play an important role on operations, helping to reduce the risks faced by military personnel on the front line.
Taranis:
  • Thrust: 6,500lbs
  • Max speed: Classified but supersonic
  • Length: 37ft
  • Wingspan: 32ft
  • Max Altitude: Classified

Taranis will explore and demonstrate how emerging technologies and systems can deliver battle-winning capabilities for the UK Armed Forces incorporating both an autonomous and survivable Unmanned Air Vehicle System (UAV) concept design. Any future in-service systems based on such a concept design will be under the command of highly skilled ground based operators who will also be able to remotely pilot the aircraft.
About the size of a BAE Systems Hawk Jet, Taranis is jointly funded by the UK MOD and UK industry and is managed by the UK MOD’s Unmanned Air Systems Project Team in the Defence Equipment and Support Organisation based in Bristol. Taranis was formally unveiled at a ceremony in July 2010.  Initial ground testing commenced in 2010 with flight trials planned for 2013.
BAE Systems formed a teaming arrangement combining Rolls-Royce, the Systems division of GE Aviation (formerly Smiths Aerospace) and QinetiQ to work alongside UK MOD military staff and scientists to develop and fly Taranis.
BAE Systems, as prime contractor, will provide many elements of the Taranis technology demonstrator, including the low observability, systems integration, control infrastructure and full autonomy elements (in partnership with QinetiQ).
Comparison with other similar aircraft:





Germano-Spanish Barracuda


US X-47 Project








Friday, 19 April 2013

NZ Navy buys reject Aussie Seasprite Helicopters


NZ Navy buys SH2-G (I)  Seasprites rejected by Australia



Fairfax News:


The navy is to get eight new Seasprite helicopters that were originally built for the Australians but rejected by them.

Defence Minister Jonathan Coleman said the Government had approved the purchase of the upgraded and expanded Seasprite helicopter fleet.

They will be bought from the United States company Kaman Aerospace for $242 million, which includes two spare airframes, a training simulator, missiles, and additional components.

"The Defence Force currently has five Seasprites which have been in service since the late 1990s and are due for replacement," Coleman said.

The new helicopters are an upgraded variant, the Seasprite SH-2G(I).

The larger fleet will allow helicopters to be placed on board the frigates Te Mana and Te Kaha as well as on the offshore patrol vessels and the multi-role HMNZS Canterbury, he said.

"These helicopters come with modernised sensor, weapons and flight-control systems and will be a major boost to our maritime surveillance and search capability," Coleman said.

"The helicopters will also ensure that our naval fleet is able to operate at its full potential."


                               

The choppers have had a chequered past but the purchase is seen as a bargain on this side of the Tasman.

They were originally built for the Australian Defence Force, but in 2009 the Australian government cancelled the contract and decided not to introduce them into service after questions about their suitability for Australia's requirements.

"The New Zealand Defence Force and Ministry of Defence officials are acutely aware that the Australian government decided not to fully introduce these aircraft into service after concerns about a range of technical issues," Coleman said.

"As a consequence, the Ministry of Defence has invested considerable resources into examining all aspects of this project over the last two years.

"This included commissioning an independent study by Marinvent Corporation of Canada.

"Ministry of Defence officials have advised the government this aircraft will prove a very capable purchase, meet all of the New Zealand Defence Force's requirements, and can be introduced into service."

Based on that advice and after looking at other replacement options the Government approved the project.

"The replacement Seasprites will have a multiplier effect on the capability of the navy and what's more, the price is very good with alternative helicopter replacements costing three times the amount," Coleman said.

This was first reported in the media (Naval Technology in June 2012):


Kaman is set to begin negotiations with the New Zealand Government for the possible sale of 11 SH-2G(I) Super Seasprite helicopters to the Royal New Zealand Navy (RNZN) following authorisation from the US Department of State.

The recent approval will allow New Zealand defence officials to seek better options for their future maritime helicopter requirements, although no investment decisions have been made yet by either party.
The possible sale includes a full motion flight simulator, training aids, spares inventory, publications and the introduction into service and through life support of the aircraft for the New Zealand Government.

The latest version of the multi-mission maritime helicopter of the SH-2G Super Seasprite, Kaman SH-2G(I) will boost New Zealand's vertical lift capabilities and replace its existing ageing SH-2G Seasprite helicopter fleet. In addition to providing exceptional performance and low operating costs, the SH-2G(I) aircraft will support the New Zealand Ministry's objective to enhance naval helicopter capabilities through to 2025.

Capable of operating from offshore patrol vessels, the new capability will also play a vital national role in extended reach, surveillance, and air-delivered weapons capabilities for the ANZAC frigates.

The SH-2G features fully-integrated, multi-mission maritime weapon system and has been designed to support anti-submarine warfare (ASW), anti-surface warfare (ASuW), over the horizon targeting, surveillance, troop transport, vertical replenishment, search and rescue, as well as utility missions.

In May 2012, the RNZN conducted Kaman SH-2G Seasprite helicopter flight trials from its new Protector-class offshore patrol vessel (OPV), HMNZS Otago (P148) in the Hauraki Gulf and the Bay of Plenty areas.
The RNZN currently operates five SH-2G Super Seasprite helicopters.






In 1997, Australia signed an $A 667 million contract with Kaman to purchase 11 upgraded SH-2G (A) “Super Seasprites,” with modernized avionics. This compact helicopter design was thought to be well suited to operation from the RAN’s ANZAC Class frigates, and even from patrol boats with helicopter decks. The first helicopter was unveiled in 2003, but by 2005 up to 40 deficiencies had been identified including inability to operate in bad weather and low-light conditions, and inability to meet Australian airworthiness certification standards. Placing modern avionics into a 1960s air-frame proved challenging indeed; the helicopters were restricted to “passenger and supply transport in good weather” in 2005, then grounded in May 2006.

                        

By 2007, the project was 6 years behind schedule, costs had risen over 50% to $A 1.1 billion (about $900 million) for 11 helicopters, and the program was being used as a case study in the Australian Defence College’s leadership and ethics course. It’s estimated that at least $A 45 million more and 29 months of work was be required to make them serviceable, with full operational status unlikely until at least 2010. In 2007, Australia’s Liberal Party government elected to continue the Super Seasprite program – but their successor Labor government reversed that decision, and come to an interesting agreement with Kaman. 

NZ has now purchased these aircraft from Kaman.

Original article and further info from Defence Industry Daily

Amelia Earhart's sad demise

Dozens heard Amelia Earhart's final, chilling pleas for help, researchers say Distilled from 2 posts in the  Washington Post a...