Showing posts with label Mobile phones on aircraft. Show all posts
Showing posts with label Mobile phones on aircraft. Show all posts

Friday, December 31

Handsfree

Hands-free mobile phone kit fitted to a Saab 9-5,..
Handsfree is an adjective describing equipment that can be used without the use of hands (for example via voice commands) or, in a wider sense, equipment which needs only limited use of hands, or for which the controls are positioned so that the hands are able to occupy themselves with another task (such as driving) without needing to hunt far afield for the controls.
Devices that are typically used for handsfree communication use Bluetooth as its wireless technology. They still require a mobile phone or other device to initiate a call. These devices include Bluetooth headsets, hands-free car kits (HFCK), and personal navigation devices (PND). Originally introduced as optional features connected by a wire to mobile phones or other communication devices, they now generally are available with wireless technology.
Bluetooth handsfree options are now also easily found in any high end automotive as part of the vehicle's stereo system, or in after market stereo system units. This option utilizes the vehicle's speakers to transmit the caller's voice in the phone call and have an embedded microphone in the stereo unit itself, the steering wheel, or use a separate wired microphone that can be placed anywhere in the vehicle.


Mobile phones

Handsfree mobile phones are obligatory in many countries for use of a mobile phone while driving. However, studies have shown that even with a hands-free unit, the added distraction to the driver, and the increase in accident rates, are almost as substantial as when driving and talking on a normal mobile phone.[1]
In the United Kingdom, as of 2003, it is illegal to use a handheld mobile phone while driving.[2] Similar laws have been adopted in many jurisdictions worldwide, and many make provisions for hands-free phone use.
Installation of Hands Free devices in the UK is governed by MPT 1362, which is now referred to as FCS 1362. A technical document created and updated by the Federation of Communication Services.
In the USA, several states have banned talking on a hand-held cellphone while driving.

[edit]Software Technologies

Since handsfree devices replace a phone's own speaker and microphone capability in a phone call, they now also must deal with the same issues that standard mobile phones and land phones deal with. The main acoustic issues are echo cancellation and noise suppression, although there are others as well. There have been many ways developed to cancel echo in phone calls and results range from poor to excellent.
These acoustic technologies must also remove or reduce the noise levels so that the caller is well understood. A person making a call from a handsfree device who is in a busy restaurant or while driving will introduce large levels of noise into the call. This situation is complicated as the software must not only remove the noise around him, but must transmit his voice clearly and loudly to whoever is connected to him.
The best software solutions combine both echo cancellation and noise cancellation into a single technology so that the caller has the freedom to use a handsfree device anywhere they please. Having an acoustic solution with only one feature will dramatically reduce its flexibility.


(source:wikipedia)

Friday, December 17

Mobile phones on aircraft


Mobile phones on aircraft

Mobile phones on aircraft are strictly regulated as concerns exist that mobile phones pose a danger to the aircraft and passengers. It is thought they could adversely affect the navigational instruments in the cockpit and so such devices must be turned off while the aircraft is airborne.
The use of mobile phones and similar devices has been banned by regulatory bodies such as the United States' Federal Aviation Administration and others across the world. Many reasons have been given and tests have been performed to try and identify any possible interference that may arise from their usage in–flight. The general conclusions are that any risk that may cause aircraft failure and passenger deaths is too high until testing confirms that the risks have been dealt with or do not exist.
The major problems are that the mobile phones or other electronic devices may interfere with aircraft systems or computers due to poor or missing shielding and so cause a catastrophic failure of the control mechanisms. There have been few instances where a definite link between device use and system failures have been proven and in those cases where a correlation has been shown it has tended to be where shielding was in fact not present, of bad quality or had been compromised.
Since the regulations were imposed by the various international bodies there have been advances in equipment and systems which have allowed the gradual introduction of safe in-flight communications via mobile phones and such devices. These systems are being implemented by an increasing number of airlines and carriers as each is tested by the authority responsible for air-safety and deemed to be fit for use.

Mobile phone usage issues

Electromagnetic interference
Electromagnetic interference to aircraft systems is theoretically possible from active radio transmitters such as mobile phones, small walkie–talkies or radio remote–controlled toys and also from unintentional emitters such as ordinary radio receivers, computers and virtually any non–trivial electronic device. However, there has been little empirical support of this theory and studies have either been non-conclusive or found there there is no evidence that use of electronic devices on could interfere with an aircraft's systems.
There are some reports that indicate this and some that refute it:
Boeing performed extensive tests as reported in AeroMagazine's Interference from Electronic Devices in response to reports by flight crews of anomalies that they believed to be caused by electronic devices. The flight crews had apparently confirmed the effect by switching the "suspect" devices on and off and watching the effects. Despite this and despite the fact that Boeing in many cases was able to purchase the actual offending device from the passenger and use it in extensive testing Boeing was never able to reproduce any of the anomalies. The report concludes:
As a result of these and other investigations, Boeing has not been able to find a definite correlation between PEDs and the associated reported airplane anomalies.

ABC News 20/20 aired a report in December 2007 trying to get to the bottom of the ban on cell phone usage in aircraft. They interviewed one of the authors of the IEEE Spectrum report cited below but also noted that this study was not designed to actually detect interference–only that cellphones which are not switched off. The report concludes that the primary reason for the ban on cell phone use in flight is that neither the FAA nor the FCC are willing to spend the money to perform conclusive safety tests. They have left this up to the airlines who do not see any return on investment made in paying for such tests. According to the 20/20 website ABC News consultant and veteran airline pilot John J. Nance states categorically:
There's little reason to worry about cell phones interfering with an airplane's navigational equipment. Nance says an airplane's electronic systems are "all heavily shielded. That means that stray signals cannot get into those systems."

A NASA publication details the fifty most recent reports to the Aviation Safety Reporting System (ASRS) regarding "avionics problems that may result from the influence of passenger electronic devices." The nature of these reports varies widely. Some merely describe passengers' interactions with flight crews when asked to stop using an electronic device. Other reports amount to crews reporting an anomaly experienced at the same time a passenger was witnessed using a mobile phone which indicates only a weak correlation and not causality. However a few reports state that anomalies were observed to appear and disappear as the suspect device was turned on and off which would indicate a high degree of correlation.
A NASA report from 2001 summarizes "14 years of incidents reported by pilots to the ASRS" of interference caused, or suspected to be caused, by passengers electronic devices. Mobile phones were the most frequently identified source of interference with laptop computers a close second. In no cases were the affected avionics found to be defective upon later testing. Degrees of correlation or confidence were not among the data summarized in the report.
A 2003 study involved three months of testing with RF spectrum analyzers and other instruments aboard regular commercial flights. The report found that on a typical flight at least one mobile phone is likely to be left on throughout the flight and that a mobile phone in use produces a far stronger signal than one that is simply left switched on. In the authors' words:
There is no smoking gun to this story: there is no definitive instance of an air accident known to have been caused by a passenger's use of an electronic device. Nonetheless, although it is impossible to say that such use has contributed to air accidents in the past, the data also make it impossible to rule it out completely. More important, the data support a conclusion that continued use of portable RF-emitting devices such as cellphones will, in all likelihood, someday cause an accident by interfering with critical cockpit instruments such as GPS receivers. This much is certain: there exists a greater potential for problems than was previously believed.

A 2000 study by the British Civil Aviation Authority concluded that:
interference levels produced by a portable telephone, used near the flight deck or avionics equipment bay, will exceed demonstrated susceptibility levels for equipment qualified to standards published prior to July 1984. Since equipment qualified to these standards are installed in older aircraft, and can be installed (and is known to be installed) in newly built aircraft, current policy for restricting the use of portable telephones on all aircraft will need to remain in force.. …For safety reasons, the Regulatory Authorities should continue to prohibit the use of portable telephones by passengers on aircraft whilst the engines are running.

A report from BBC news comments that "most of the evidence is circumstantial and anecdotal. There is no absolute proof mobile phones are hazardous." It also quotes Dan Hawkes the head of avionic systems at the Civil Aviation Authority (CAA):
There's an industry consensus, throughout the world, that mobile phones are a potential hazard to aircraft and must be switched off. A typical aircraft these days could have anything up to 15 or more radio systems on board. The signals that a mobile phone gives out could penetrate into equipment, and could affect the operation of the computer. The computer may shut down, which would affect the aircraft's navigation, which in turn would affect the signals sent to the auto pilot, and the way the aircraft is automatically flown. The aircraft might go off course, and even might change height.

Whether interference from small battery-powered devices should have any influence on electronic systems that should be designed to fly through lightning storms without failing is often disputed by critics of the ban. An article by Tekla S. Perry and Linda Geppert, then editors of IEEE Spectrum, offers an explanation: "While a brand new aircraft may indeed be completely immune from such interference, shielding and other mechanisms that normally protect the avionics do degrade over time, after thousands of takeoffs, landings, and pressurization cycles and various maintentance procedures. Similarly, the shielding in passengers' devices also degrades due to the passage of time and, in some cases, repair procedures."
While certainly not a rigorous scientific study the Discovery Channel television program MythBusters examined the "myth" that mobile phones are banned aboard aircraft to force passengers to use the airline's inflight phones. They concluded that this is "busted". Their tests caused no interference to a small airplane's avionics but did to unshielded equipment. They concluded that interference could occur aboard an aircraft if the shielding was not working correctly.

Conclusions
The cost of an accident, should one occur, could be extremely high in terms of human life and the risk is completely avoidable in that no one absolutely needs to use their mobile phone in flight. The regulatory agencies and aviation industry take the position that any increased risk is unacceptable if it is avoidable.
Some mobile phone systems such as GSM may cause an irritating buzz, which could disrupt communications from the pilot to ground. The high speed of air travel may make interference more likely than it would otherwise be. The maximum speed of travel in a mobile phone system is limited by several factors; frequency changes, rate of change of timing offset, etc. and the speed of an airplane often exceeds these as, typically, mobile phones are designed for use in a fast car which means the phone will fail to register to the network and retry registration repeatedly.

Other factors

Social resistance to mobile phone use on flights
People may prefer a ban on Mobile phone use in flight as it prevents undue amounts of noise from cellphone chatter. For several reasons people tend to talk more loudly into Mobile phone than they do when talking in person.
AT&T has suggested that in-flight mobile phone restrictions should remain in place in the interests of reducing the nuisance to other passengers caused by someone talking loudly on a phone next to them.

Competition for airlines' in-flight phone service
Skeptics of the ban believe that the airlines support the ban because they do not want passengers to have an alternative to the in-flight phone service such as GTE's Airphone.These services are much more expensive than mobile phone services. They also provide extremely slow data rates at a similarly high price. In general the airlines have had little success in selling these services and the in-flight phone equipment has disappeared from most U.S. domestic flights.
It could be easy to believe that the airlines support a continued ban on mobile phone use so as to force customers to use the in-flight phone service with comments such as those made by Andy Plews a spokesman for UAL's United Airlines. "We don't believe it's a good safety issue"..."We'd like people to use the air phones."

Current status

Emirates Airline
On 20 March 2008, Emirates Airline flights began allowing in-flight voice calls on some commercial airline flights.
The approval by EASA of these systems has established that GSM phones on certified aircraft types are considered safe to use when installed with an on-board cellular picocell.

Europe
AeroMobile and OnAir allow the use of personal electronics devices aboard flights. The services are most prevalent in Europe and are licensed to specific airlines for use.

Malaysia Airlines
Malaysia Airlines flights are installed with AeroMobile systems to enable in flight voice calls and text messages.

Mobile phone on corporate jets
Falcon 2000 on 2 April 2009 implemented a new concept designated SafeCell when it commenced flying.

United States
To prevent disruption to the cell phone network from the effects of fast-moving cell phones at altitude (see discussion below), the FCC has banned the use of cell phones on all aircraft in flight. The FCC did, however, allocate spectra in the 450 MHz and 800 MHz frequency bands for use by equipment designed and tested as "safe for air-to-ground service" and these systems use widely separated ground stations. In the 450 MHz band co-channel assignments are at least 497 miles apart and in the 800 MHz band only specific sites were authorized by the FCC. The 450 MHz service is limited to "general aviation" users, in corporate jets mostly, while the 800 MHz spectrum can be used by airliners as well as for general aviation. The 450 MHz spectrum is named AGRAS while the 800 MHz service is under review following an auction of the spectrum in 2006.

Regulations and practices
Mobile phones are portable electronic devices and, as such, are banned from use in civilian airplanes by the Federal Aviation Agency unless the operator of a commercial aircraft or pilot of a private aircraft determines that it could not cause interference to avionics in the aircraft.
The FAA in 14 C.F.R § 91.21 bans the use of all portable electronic devices (with a few odd exceptions) for all flights operated by an airline or those flights under Instrument flight rules (IFR). It does allow that the airline (or for privately operated aircraft the pilot) can make an exception to this rule if the operator deems that device safe. This effectively gives the airline, or pilot, the final word as to what devices may be used aboard an aircraft as far as the FAA is concerned although the FCC restriction still applies.
Note that for aircraft operated by an airline the pilot is not considered the "operator" and cannot legally allow exceptions to the airline's restrictions although the pilot may dictate additional restrictions.
No U.S. airlines have approved the use of mobile phones while in flight.
The FAA in Advisory Circular 91.21-1A recommends that aircraft operators blanket ban all intentional transmitters and mentions specifically CB radios, remote control devices and cellular phones. While Advisory Circulars are not legally binding air carriers rarely ignore the official written advice from the FAA.
This Advisory Circular has since been superseded by AC 91.21.1B.
Federal Avaiation Regulation (FAR) 91.21 states that the Pilot In Command of an aircraft that is NOT IFR, and NOT Part 121 (Commercial Air Carriers), can allow usage of "Portable Electronic Devices". However to take the attitude that "The FAA doesn't say I can't do it" is incorrect, particularly in the category of radiotelephone communications governed by the FCC. FCC regulations, and specifically Title 47 Part 22.925 (Oct 1, 2006 revision), states "Cellular telephones installed in or carried aboard airplanes, balloons or any other type of aircraft must not be operated while such aircraft are airborne (not touching the ground). When an aircraft leaves the ground, all cellular telephones on board that aircraft must be turned off.".
The use of cell phones aboard airborne planes is banned by the FCC in 47 C.F.R. § 22.925: "The use of cellular telephones while this aircraft is airborne is prohibited by FCC rules.... The use of cellular telephones while this aircraft is on the ground is subject to FAA regulations." This ban applies to phones that use the 800 MHz spectrum. Personal Communications Services (PCS) phones that use the 1900 MHz spectrum are governed under FCC 47CFR24 and their use in aircraft is not restricted by the FCC whether on the ground or in flight.

Cell tower channel re-use
The U.S. Federal Communications Commission (FCC) currently prohibits the use of mobile telephones aboard any aircraft in flight. The reason given is that mobile phone systems depend on channel reuse and operating a phone at altitude may violate the fundamental assumptions that allow channel reuse to work.
The FCC is also concerned that the use, or even non-use, of a powered cell phone could cause disruption to the cell systems' towers and has banned their use.
Mobile telephones are intentionally designed with a low power output. A tower is the center of a "cell" and due to attenuation with distance (inverse square law) cell phone transmissions can usually be received only weakly by towers in adjacent cells and not at all in cells farther away (non-adjacent cells). This allows the channel used by any given phone to be reused by other phones in non-adjacent cells. This principle allows tens or hundreds of thousands of people to use their phones at the same time in a given metropolitan area while using only a limited number of channels.
Channel reuse works because a mobile phone on the ground will only have one "closest" tower that can possibly use a particular group of frequencies, CDMA codes, or time slots. The software that manages the system assumes that the signal from a phone on a particular tower can, on other towers, only be "heard" at greatly reduced signal strength. The frequency, code, or time slot used by the phone can therefore be reused by other phones on other towers.
In the old analog cell system a channel was simply a frequency pair: There were seven groups of 35 channels each and no two adjacent cells used the same channel groups. Modern CDMA and TDMA systems are more complex: A channel in TDMA is a frequency pair, and a time slot, and a channel in CDMA is a spread spectrum key but the principle of channel reuse still applies.
If a mobile phone is operated from an aircraft in flight above a city these assumptions ares no longer valid because the towers of numerous different cells may be about equidistant from the phone. Multiple towers might assume that the phone is under their control and the phone could be assigned a free channel by one tower but could also be heard on other towers using the same channel group. The channel might already be in use on those other towers and could cause interference with existing calls. It is also possible that the software controlling the towers could crash. Even if the software can cope with hearing the same phone on multiple non-adjacent towers the result at best is an overall decrease in system capacity.
An additional concern is the output power of the mobile handset. Because the towers might be miles below the aircraft the phone might have to transmit at its maximum power to be received. This will increase the risk of interference with electronic equipment on the aircraft.

Recent and future changes

In flight technology
Airlines have installed technologies to allow phones to be connected within the airplane as it flies. Such systems were tested on flying scheduled flights from 2006 and in 2008 several airlines started to allow in-flight use of mobile phones. These changes have been attributed to strong demand by frequent fliers. A few airlines that are installing the equipment are also considering the issue of "phone-free zones" and "quiet time" on long flights.

Future changes
A few U.S. airlines have announced plans to allow Mobile phone to be used on aircraft pending approval by the FCC and the FAA. The method is similar to that used in some cars on the German ICE train and the aircraft will contain a device known as a picocell. The picocell will act as a miniature mobile telephone tower communicating with mobile phones within the aircraft and relaying the signals to either satellites or a terrestrial-based system. The picocell will be designed and maintained for full compatibility with the rest of the on-board avionics. Communication between the picocell and the rest of the telephone network will be on separate frequencies that do not interfere with either the cellular system or the aircraft's avionics much like the on–board phone systems already aboard many commercial aircraft. Since the picocell's antennas within the aircraft would be very close to the passengers and inside the aircraft's metal shell both the picocell's and the phones' output power could be reduced to very low levels reducing the chance for interference. Such systems have been tested on a few flights within the United States under a waiver from the FCC.
ARINC and Telenor have formed a joint venture company to offer such a service on board commercial aircraft. The mobile phone calls are routed via satellite to the ground network and an on-board EMI screening system stops the cellphones contacting the ground network.
These systems are comparatively easy to implement for customers in most of the world where GSM phones operating on either of just two bands are the norm. The multitude of incompatible mobile phone systems in the United States and other countries makes the situation more difficult — it is not clear if the onboard repeaters will be compatible with all of the different cell-phone protocols (TDMA, GSM, CDMA, iDen) and their respective providers.
On 30 August 2006 the Irish low-cost airline Ryanair announced it will introduce a facility to allow passengers to use their mobile phones in-flight. This service as started on the 19th February 2009 with 20 of their Dublin based aircraft.
As of mid April 2007 Qantas teamed up with Panasonic Avionics Corporation and AeroMobile to commence a three month trial that would "enable customers to send and receive e-mails, access the Internet and send and receive text messages from their own mobile phone"
On 18 October 2007 Ofcom published proposals for the technical and authorisational approach that would be adopted to allow this for European GSM users on the 1800Mz band on UK registered aircraft. and on 26 March 2008 Ofcom approved the use of mobile phone-supporting picocells aboard aircraft in the United Kingdom. Airline companies will have to equip the aircraft with picocells and apply for licences.

See also

Crossair Flight 498 – An alternate theory of the 2000 crash of this flight was based on the use of passenger cell phones which resulted in a number of countries outlawing the use of cell phones on flights.
Ansett New Zealand Flight 703 – There is speculation that cell phone interference with the radio altimeter while on instrument approach may have caused this crash although the official accident report cites the cause as pilot error and states "The aircraft manufacturer’s avionics representative advised that there was no likelihood that the operation of a computer, other electronic device or a cell phone would have affected the aircraft’s flight instruments."


(source:wikipedia)

Emirates fleet

Boeing 777-300ER, completing its first flight to Dubai International Airport. EK is the world's
 largest operator of the Boeing 777 family, with 83 in its fleet and 49 on order
The Emirates fleet features purely wide-body aircraft from 3 aircraft families: the Airbus A330 / A340, Airbus A380 and the Boeing 777. In keeping with its policy of maintaining a young fleet, which stands at an average of 5.9 years in July 2010, it renews its fleet frequently.
In July 2008, Emirates received its first Airbus A380-800 and in August 2008, it became the second airline to fly the Airbus A380-800, after Singapore Airlines.
Emirates has firm orders for 212 aircraft, and options for 50 more. In July 2010 their orders comprise of 212 aircraft from European Airbus, including 80 superjumbos Airbus A380-800 (10 delivered as of June 2010), and 63 American Boeing aircraft. As of February 2009, the company had an order book of over $70 billion, comprising 212 firm orders, and 50 unconfirmed orders.
Emirates Aircraft utilisation remained one of the highest in the industry at 18 hours per day.

Historic fleet

Emirates was conceived in March 1985 with backing from Dubai's royal family, whose Dubai Air Wing provided two of the airline's first aircraft, used Boeing 727-200/Advs. It also leased a new Boeing 737-300 from Pakistan International Airlines which was returned back in 1987. Emirates then launched daily nonstop service to London Gatwick on 6 July 1987 with two new Airbus A310s. By 1994 the airline had a fleet of 18 Airbus aircraft (all which have retired). Seven new Boeing 777s worth over $1 billion were ordered in 1992 which began to arrive in the spring of 1996.
Emirates Airbus A300-600Rs were retired in 2001 and replaced by Airbus A330-200s. Some were sold to Tunisair and some were sold to Lufthansa.
Emirates Airbus A300B4-200 fleet was retired from service by the end of 2001.
The Boeing 727-200/Advs remained in service with Emirates for 6 years, and was sold in 1993.
The Boeing 737-300 remained in service for two years from 1985 to 1987 and was returned back to Pakistan International Airlines
The following is a list of aircraft that Emirates has operated since 1985, and are now no longer in the fleet.

Historical Emirates Fleet (1985 - Present)
AircraftTotal deliveredRegistrationPeriod in fleetReference
Airbus A300B41AP-BBM (Leased from PIA)1988 - 2001
Airbus A300-600R6A6-EKC - A6-EKD - A6-EKE - A6-EKF - A6-EKM - A6-EKO1989 - 2001
Airbus A310-3009A6-EKA - A6-EKB - A6-EKG - A6-EKN - A6-EKH - A6-EKI - A6-EKJ - A6-EKK - A6-EKL1987 - 2004
Airbus A310-300F2A6-EFA - A6-EFB2005 - 2009
Boeing 727-200Adv3A6-EMA - A6-EMB - A6-EMC1985 - 1994
Boeing 737-3001AP-BCD (Leased from PIA)1985 - 1987


Current fleet

The Emirates fleet consists of the following widebody aircraft as of July 2010:


Emirates Fleet
AircraftTotalOrdersOptionsEnginesPassengers
(First/Business/Economy)
Routes (To and from Dubai)Haul
Airbus A330-2002900RR Trent 772B237 (12/42/183)
278 (0/27/251)
Ahmedabad, Amman, Athens, Baghdad, Bahrain, Bangalore, Beirut, Casablanca, Chennai, Dammam, Damascus, Delhi, Dhaka, Doha, Durban, Düsseldorf, Hyderabad, Karachi, Kochi, Kolkata, Kozhikode, Kuwait, Larnaca, Madrid, Malta, Mumbai, Munich, Muscat, Nairobi, Newcastle, Nice, Peshawar, Prague, Riyadh, Rome, Sana'a, Tehran, Thiruvananthapuram, Tripoli, Tunis, Venice, ZurichShort - Medium haul
Airbus A340-300800CFM CFM56-5C267 (12/42/213)Abidjan, Accra, Athens, Casablanca, Dakar, Madrid, Milan, Muncih,, ShanghaiMedium haul
Airbus A340-5001000RR Trent 553258 (12/42/204)Auckland (via Brisbane), Beijing, Beirut, Brisbane, Dar-Es-Salaam, Khartoum, Lagos, Mahe Island, Melbourne, Moscow, Mumbai, TripoliLong haul
Airbus A350-900 XWB05050RR Trent XWB-84TBATBAMedium haul
Airbus A350-1000 XWB0200RR Trent XWB-93TBATBALong haul
Airbus A380-80015750EA GP7270489 (14/76/399)
517 (14/76/427)
Auckland (via Sydney), Bangkok, Beijing,Hong Kong (via Bangkok), Jeddah, London-Heathrow, Manchester, New York, Paris, Seoul, Sydney, Tokyo, TorontoMedium - Long haul
Boeing 777-200300RR Trent 877346 (0/42/304)Amman, Bahrain, Bangalore, Cairo, Chennai, Colombo, Damascus, Dhaka, Doha, Hyderabad, Islamabad, Karachi, Kochi, Kozhikode, Kuwait, Riyadh, ThiruvananthapuramMedium haul
Boeing 777-200ER600RR Trent 892290 (12/42/236)
346 (0/42/304)
Beirut, Delhi, Istanbul, London-Gatwick, London-Heathrow, Luanda, Male, Mumbai, Nairobi, Paris, ZurichMedium - Long haul
Boeing 777-200LR1000GE GE90-110B1266 (8/42/216)Amsterdam, Beirut, Houston, Los Angeles, Perth, São Paulo, SydneyUltra-long haul (and medium haul)
Boeing 777-3001200RR Trent 892364 (12/42/310)Amman, Bangkok, Cairo, Chennai, Colombo, Dammam, Delhi, Doha, Düsseldorf, Frankfurt, Hong Kong, Hamburg, Kuala Lumpur, London-Heathrow, Male, Mauritius, Moscow, Mumbai, Munich, Paris, Rome, Singapore, TehranMedium - Long haul
Boeing 777-300ER53490GE GE90-115B354 (8/42/304)
358 (12/42/304)
364 (12/42/310)
427 (0/42/385)
442 (0/42/400)
Addis Ababa, Amsterdam, Athens, Auckland (via Melbourne), Bangalore, Bangkok, Beirut, Birmingham, Brisbane (via Singapore), Cairo, Cape Town, Christchurch (via Bangkok and Sydney), Chennai, Colombo, Dammam, Dhaka, Entebbe, Frankfurt, Glasgow, Guangzhou, Hamburg, Hong Kong, Hyderabad, Islamabad, Istanbul, Jakarta, Jeddah, Johannesburg, Karachi, Kuala Lumpur, Kuwait, Lagos, Lahore, London-Gatwick, London-Heathrow, Manchester, Manila, Male, Mauritius, Melbourne (via Singapore), Milan, Moscow, Mumbai, New York, Osaka, Paris, Perth, Riyadh, San Francisco, Shanghai, Singapore, Sydney, Tehran, Tokyo-Narita, Vienna, ZurichLong haul
Total14619450

Future


Emirates Airbus A330-200 (A6-EKS) landing at London Gatwick Airport

Boeing 777-300 at Singapore Changi Airport

Emirates aircraft parked at Dubai International Airport 

The airline has orders for 90 Airbus A380-800 aircraft and was the second airline to receive the aircraft, after Singapore Airlines, the launch customer. Emirates will be the largest operator of the type.

Speaking at the recent IATA 2009 annual general meeting in Kuala Lumpur, Tim Clark, Emirates's CEO, says that they would be operating around 163 aircraft by 2012, and that they have to consider the 58 aircraft to be retired within years, including the A330-200, A340-300 and 777-200/-300 Classics. In June 2010 it was announced that Emirates will begin phasing out 68 older widebodies – A330-200s, A340-300/500s and 777 “Classics from February 2011". Emirates plans to have over 320 aircraft by 2018, and some reports suggest that the airline will have more than 400 aircraft in its fleet by 2020.

Fleet developments

On 19 July 2010, at the Farnborough Air Show in the U.K., Emirates ordered 30 Boeing 777-300ER worth $9.1 billion.
Emirates also announced it had signed a contract for Engine Alliance GP7200 engines to power the 32 Airbus A380 aircraft it ordered in June at the Berlin Air Show. The deal with Engine Alliance, a joint venture between GE and Pratt & Whitney, was worth $4.8bn, while last month’s Airbus A380 order was worth $11.5bn. The total spending for new aircraft this year has reached $25bn .
On 8 June 2010, at the Berlin Air show, Emirates ordered an additional 32 A380s worth $11.5 billion. The deal was the biggest single order for the world’s largest passenger aircraft.
This latest order, added to the 58 A380s previously ordered, brings the total to 90. Emirates expects all 90 superjumbos to be delivered by 2017. None of the additional 32 jets are intended to replace existing A380s; although Emirates received its first A380 in 2008 it does not expect to retire these early airframes before 2020. Later in June 2010, Tim Clark, the president of Emirates, hinted at further orders for A380s.
On 28 July 2008 Emirates signed a Letter of Intent (LoI) for 60 airbus aircraft compromising of 30 Airbus A350s plus 30 A330-300s. The agreement was signed between Sheikh Ahmed Bin Saeed Al Maktoum, Chairman and Chief Executive Emirates and Group and Tom Enders, Airbus President and CEO on the occasion of their first A380-800 delivery in Hamburg, Germany. At the 10th Dubai Airshow in 2007, Emirates signed a firm order for 70 A350s with an option for 50 more. The agreement includes the firming up of 30 of the Airbus A350 options and will eventually increase Emirates’ total order for the A350s to 100.However in June 2010 the airline confirmed they have aborted a planned deal for 30 A330-300s and 30 more A350-1000s announced in July 2008 and are currently in talks with Boeing for smaller wide-body aircraft. 
On 11 November 2007, during the Dubai Airshow, Emirates 120 Airbus A350s, with the first delivery set for 2014. A firm $16.1bn order for 70 planes has been made with an option for 50 more aircraft, at an additional cost of $11.5bn, in due course; the airline will mainly use the A350s on its European, African and Asian routes. The agreement with Airbus comprises firm orders for 50 A350-900s and 20 A350-1000s, plus 50 options of unknown variant(can be A350-900/A350-1000 or both). On the same day Emirates has also upped its order for the Airbus A380-800 to 58 units, up from 49. Also, Emirates ordered 12 Boeing 777-300ERs. In total the deal was worth an estimated $34.9bn at list prices.
On 18 June 2007, during the Paris Air Show, Emirates ordered eight additional A380-800s, bringing its total ordered to 55.Emirates, which was deciding between the Boeing 787 and Airbus A350, also stated it would decide on an order worth as much as US$20 billion for mid-sized planes by October 2007, and that the design of the Airbus A350 was closing in on Boeing's 787 Dreamliner.
On 7 May 2007 Emirates reaffirmed its order for 43 A380-800s and has committed to another four which brought its order to 47.
On 31 October 2006, Emirates cancelled an order for 20 Airbus A340-600 aircraft, ending a delay in the delivery of the aircraft pending enhancements.
During the Farnborough Air Show in July 2006, Emirates signed a Heads of Agreement for 10 of Boeing 747-8F aircraft, to be powered by General Electric's GEnx jet engines, in a deal worth US$ 3.3 billion.
On 20 November 2005, Emirates announced firm orders for 42 Boeing 777 aircraft, to be powered by GE90 jet engines, in a deal worth Dhs 35.7 billion (USD9.7 billion) at list prices. This was the largest-ever order for the Boeing 777 family of aircraft and consists of: 24 Boeing 777-300ERs, 10 Boeing 777-200LR Worldliners and eight Boeing 777 Freighters, with the first aircraft scheduled for delivery in 2007. In addition, Emirates will have purchase rights for 20 more 777 aircraft.
On 16 November 2003, Emirates ordered 41 Airbus aircraft, comprising two A340-500s, 18 A340-600s and 21 A380-800s. In addition, Emirates will lease two A340-600s and two A380-800s from ILFC.
The airline made history at the Paris Air Show in June 2003 when it announced the biggest order ever in civil aviation. It was for 71 aircraft list-priced at a combined US$19 billion. The order included firm purchase orders for 21 more Airbus 380-800s and leasing orders for two A380-800s. Emirates also announced operating lease orders for 26 Boeing 777-300ERs – 14 from General Electric Capital Aviation Services and 12 from the International Lease Finance Corporation (ILFC) – powered by General Electric GE90-115B engines.
The airline has converted an order for A380-800F into the passenger version which are due for delivery in 2009. In its place the airline has ordered ten of the recently launched Boeing 747-8 freighters for its SkyCargo subsidiary. Emirates has chosen the Boeing 747-8 "derivative" freighter over the all-new Airbus A380-800F for its nose-loading capability, something the rival Airbus freighter is lacking.

Airbus A330/A340
Emirates first introduced the A330 into its fleet in 1999, the airline uses it on all short haul flights within the Middle East, Asia, and Africa. Emirates has fitted the aircraft with both 2 class and 3 class configurations. All A330's use RR Trent 772B engines. 
The airline also uses the A330 on medium haul European flights and flights to King Shaka International Airport in Durban, South Africa. The airline expects to retire all their A330's at the beginning of February 2011.
The airline also has 18 A340 aircraft which include 8 Airbus A340-300 aircraft and 10 Airbus A340-500 aircraft. The A340-300 aircraft were bought from Singapore Airlines in 2003. All A340-300 aircraft are specified in 3 class configuration with 267 seats. All aircraft are also fitted with CFM 56 engines. 
The A340-500 aircraft were also introduced to the fleet in the last quarter of 2003 and are used on the ultra long haul routes. The aircraft are also designed in 3 class configuration with 258 and use RR Trent 553 engines.

Airbus A380
In July 2008, Emirates received its first Airbus A380-800 and in August 2008, it became the second airline to fly the Airbus A380-800, after Singapore Airlines. The airline currently uses the A380-800 daily between Dubai and London Heathrow. On the 1st February 2009, the A380-800 began its Dubai–Sydney–Auckland service 4 times weekly, moving to a daily service by the 1st of May 2009, Dubai–Melbourne–Auckland service will commence later in 2010. Emirates redeployed its two A380-800s flying the Dubai-New York City's John F. Kennedy International Airport route. These are retired from the route (effective June 1) and are now deployed on its Dubai-Toronto route, and Dubai-Bangkok route. Emirates expects the Toronto route on the A380 to have a load factor of around 80%, and is also targeting a 70% load factor on A380 Bangkok flight.
A380-800 flights to Seoul and Singapore will commence November and December 2009, respectively. Emirates has also planned to use their A380-800 between Dubai and Rome's Leonardo da Vinci-Fiumicino Airport beginning December 1, 2009.
Emirates has refused that it is delaying the delivery of the superjumbo. In fact, they are receiving them at a more rapid rate than the other A380 operators are receiving them. On 28th May 2010, the airline received their 9th A380 and they are on track to have 15 by December 2010.  The president of Emirates says that he expects to order even more A380s beyond the current orders for 90.

Boeing 777
Emirates has a large fleet of 777s, and plans to start phasing out older "classic" 777s in February 2011. As of July 2010, Emirates has 83 Boeing 777 aircraft, which include It has been reported that Emirates was in discussions with Boeing about a future aircraft which might replace the 777 in the longer term.

Expansion

The airline has plans to increase the number of flights across its network by 14 per cent in 2009. In 2010, Emirates will add 23 new passenger aircraft to its fleet, increasing seating capacity by 18 per cent and enabling it to start new routes as well as increase frequencies on existing routes. It will also expand cargo capacity by 17 per cent. Emirates, which has a total of 90 Airbus A380s on order as of 2010, said that they will have 15 more A380s in their fleet by 2011,. The carrier had said recently it has no plans to delay or defer aircraft deliveries over 2009, despite a tough credit environment.
Emirates will have 122 Boeing 777s in its fleet by 2012 making it the single largest aircraft type in fleet, and will also operate 90 Airbus A380-800s by 2017. Emirates will have about 165 aircraft in its fleet by 2012, and will have more than 300 aircraft in its fleet by 2020.


See also
Emirates (airline) طيران الإمارات


(source:wikipedia)