Aviació Seguretat aèria Ryanair Malta Air Vol FR1879 Boeing 737-800 Despressurització NTSB

Vol FR1879 de Ryanair: què se sap del motor, la finestra trencada i el passatger arrossegat cap a fora

El vol FR1879, operat per Malta Air, va tornar a Tessalònica després d’un problema al motor dret, una finestra trencada i una despressurització ràpida. Un passatger de 61 anys va quedar parcialment fora de la cabina i altres ocupants el van recuperar. La investigació de l’NTSB continua oberta: les imatges apunten a danys greus al motor, però encara no hi ha una causa final.

El matí del 10 de juliol del 2026, el vol FR1879 va enlairar-se de Tessalònica, a Grècia, amb destinació a Memmingen, al sud d’Alemanya. Uns sis minuts després, mentre el Boeing 737-800 pujava per sobre dels 15.000 peus, es va produir un problema al motor dret i una finestra de passatgers va quedar oberta.

La cabina es va despressuritzar, van caure les màscares d’oxigen i un home de 61 anys assegut al costat de l’obertura va ser arrossegat parcialment cap a fora. La seva dona i altres passatgers el van subjectar i el van tornar a introduir a l’avió.

L’aparell va descendir fins a uns 6.000 peus, va romandre a baixa altitud aproximadament mitja hora per reduir pes i va aterrar amb normalitat a Tessalònica prop d’una hora després de sortir. L’home va rebre assistència per lesions al coll i l’espatlla i cremades per fricció.

La seqüència general està documentada. La causa tècnica definitiva, però, encara no. L’NTSB dels Estats Units dirigeix la investigació i no ha publicat un informe final. El vídeo de Captain Steeeve explica un mecanisme probable, però en alguns moments presenta com a cert allò que encara s’ha de demostrar.

Dades bàsiques de l’incident

  • Vol comercial: FR1879.
  • Ruta: Tessalònica–Memmingen.
  • Data: 10 de juliol del 2026.
  • Avió: Boeing 737-800, matrícula 9H-QEU.
  • Operador: Malta Air, empresa del grup Ryanair.
  • Motor afectat: el número 2, situat al costat dret.
  • Efectes: danys al motor i a la seva coberta, finestra de cabina oberta i despressurització.
  • Ferit conegut: un passatger de 61 anys, sense lesions que les fonts inicials descriguessin com a mortals.
  • Resultat del vol: retorn i aterratge segur a Tessalònica.
  • Investigació: delegada per l’autoritat grega a l’NTSB, amb participació de Grècia.

L’edat de l’aeronau també ha aparegut al debat. Flightradar24 indica que va ser lliurada nova a Ryanair el març del 2008 i transferida a Malta Air el 2022. Tenir divuit anys no identifica per si sol una causa: els avions comercials operen per programes d’inspecció i manteniment, i la investigació haurà de determinar l’estat real de cada component.

Què està confirmat sobre el motor

Les primeres comunicacions de l’NTSB parlaven d’un «problema al motor dret i descompressió de cabina». Les fotografies i els vídeos posteriors mostren pales del ventilador danyades o absents i perforacions a la carcassa exterior.

Flightradar24 descriu el cas com una aparent fallada no continguda del motor i relaciona restes del conjunt propulsor amb el cop a la finestra. El director general de Ryanair ha apuntat posteriorment a danys causats per un objecte estrany.

Són pistes, no una causa final. Encara cal respondre:

  1. quin component va fallar primer;
  2. si un objecte extern va entrar al motor o si es va desprendre una peça interna;
  3. quina trajectòria van seguir els fragments;
  4. quin fragment va impactar exactament contra el fuselatge o la finestra;
  5. si les inspeccions anteriors podien haver detectat el problema;
  6. quines càrregues van rebre la góndola, la carcassa i l’estructura de l’avió.

Anomenar-la ara una fallada de pala per fatiga, per exemple, seria avançar una conclusió que els investigadors no han publicat.

Per què una obertura petita pot arrossegar una persona

Durant el vol a gran altitud, la pressió dins de la cabina és superior a la de l’aire exterior. El fuselatge funciona com un recipient pressuritzat perquè els ocupants puguin respirar en condicions compatibles amb el cos humà.

Quan s’obre sobtadament una finestra, l’aire es mou cap a l’exterior fins que les pressions s’aproximen. A prop del forat hi ha un flux inicial molt violent, capaç de desplaçar objectes i persones. Després d’aquest primer interval no existeix una «aspiració infinita» que continuï amb la mateixa força: el diferencial de pressió disminueix ràpidament, tot i que el vent relatiu exterior continua sent extrem.

Una despressurització ràpida també pot provocar:

  • soroll ensordidor;
  • boira temporal per la caiguda de temperatura i el canvi d’humitat;
  • pols i objectes solts volant per la cabina;
  • fred intens;
  • dificultat per comunicar-se;
  • risc d’hipòxia si l’avió es manté massa alt.

Per això cauen les màscares d’oxigen i la tripulació inicia un descens d’emergència cap a una altitud respirable.

El cinturó pot marcar la diferència

Els testimonis descriuen el passatger amb el cap i les espatlles fora de l’obertura. L’ajuda immediata de la seva dona i de persones assegudes a prop va ser decisiva.

El cinturó també limita el desplaçament inicial. No converteix un seient al costat d’un forat en un lloc segur, però pot impedir que el cos arribi més lluny abans que la pressió s’igualitzi i altres persones puguin actuar.

La recomanació pràctica és senzilla: mantenir el cinturó cordat, amb una tensió còmoda, sempre que s’estigui assegut, encara que el senyal estigui apagat. La FAA ho recomana sobretot per la turbulència inesperada, molt més habitual que la pèrdua d’una finestra, però el mateix hàbit també protegeix en una despressurització.

El vídeo afegeix que portar cinturó de pantalons podria salvar una vida. Això és una opinió anecdòtica, no una mesura de seguretat certificada. El dispositiu dissenyat i provat per retenir l’ocupant és el cinturó del seient.

Com està construïda una finestra de cabina

Una finestra de passatgers no és un únic vidre domèstic. La configuració exacta varia segons el model, però acostuma a combinar:

  • panells acrílics estructurals capaços de suportar el diferencial de pressió;
  • redundància perquè una segona capa assumeixi la càrrega si l’altra falla;
  • una junta i un retenidor que mantenen el conjunt al marc;
  • un petit orifici de ventilació que regula la pressió entre panells;
  • una làmina interior de protecció, o scratch pane, que el passatger pot tocar.

La làmina més interior evita ratllades i manipulacions del sistema estructural, però normalment no manté pressuritzada la cabina.

Al Boeing 737 investigat en el cas de Southwest 1380, l’NTSB va documentar dos panells estructurals i una capa interior no pressuritzada. No convé traslladar sense més una secció genèrica de finestra a l’FR1879: els investigadors examinaran el conjunt concret, els retenidors, les marques d’impacte i totes les peces recuperades.

Per què les cantonades són arrodonides

El vídeo recorda els accidents del de Havilland Comet, el primer reactor comercial. Les primeres versions tenien obertures més rectangulars i la pressurització repetida concentrava tensions a les cantonades. Les investigacions van impulsar un coneixement molt millor de la fatiga del metall, els detalls de reblat i la geometria de les obertures.

Una forma arrodonida distribueix les tensions més gradualment i evita una cantonada de 90 graus que actuï com a concentrador. Això explica la geometria moderna, però no vol dir que qualsevol finestra arrodonida sigui invulnerable: un impacte extern prou energètic pot trencar el conjunt o danyar el marc.

En l’FR1879, les imatges semblen mostrar una obertura localitzada i un fuselatge que va conservar la integritat global. Justament aquesta compartimentació i redundància permeten que una avaria molt greu no es converteixi necessàriament en la pèrdua de l’aeronau.

La comparació correcta amb Southwest 1380

El precedent tècnic més pròxim és el vol 1380 de Southwest Airlines, del 17 d’abril del 2018.

En aquell Boeing 737-700, una pala del ventilador del motor esquerre es va fracturar per una esquerda de fatiga de baix cicle. L’impacte va deformar el conjunt, se’n van desprendre parts de la coberta i una peça va colpejar el fuselatge al costat de la finestra de la fila 14. La finestra va sortir, la cabina es va despressuritzar i una passatgera va patir lesions mortals.

L’NTSB va poder establir aquesta cadena després d’examinar la pala, la fractura, les peces recuperades, les marques al fuselatge, els procediments d’inspecció i la certificació del motor i de l’avió.

La semblança visual amb l’FR1879 és evident:

  • tots dos són avions de la família 737 NG;
  • tots dos utilitzen motors CFM56-7B;
  • hi ha danys al motor;
  • una finestra queda oberta;
  • es produeix una despressurització;
  • una persona asseguda a tocar és arrossegada cap a l’obertura.

Però una semblança no prova una causa idèntica. El cas del 2018 és un informe tancat; el del 2026 és una investigació oberta.

British Airways 5390: un precedent espectacular, però diferent

Captain Steeeve també explica el vol British Airways 5390, del 10 de juny del 1990. En un BAC One-Eleven que volava de Birmingham a Màlaga, el parabrisa esquerre de la cabina de pilots es va separar mentre l’avió pujava per uns 17.300 peus. El capità Tim Lancaster va quedar parcialment fora i els tripulants el van retenir fins que el copilot va aterrar a Southampton.

La investigació britànica no va atribuir l’incident a una finestra rectangular ni a un impacte de motor. El parabrisa s’havia substituït la nit anterior amb cargols incorrectes: la majoria eren massa estrets i la resta, massa curts.

Per tant, aquest precedent ajuda a entendre la despressurització i la feina de la tripulació, però el mecanisme d’origen és diferent:

  • BA5390: error de manteniment en els elements que retenien un parabrisa de cabina;
  • Southwest 1380: fractura d’una pala, despreniment de la coberta i impacte a una finestra;
  • FR1879: problema al motor i finestra dislocada, amb seqüència causal encara investigada.

El vídeo diu que el cinturó del capità va impedir que sortís del tot. L’informe oficial posa l’accent en la retenció física del cos per part dels tripulants i en els elements del lloc de pilot; no s’hauria d’utilitzar aquest detall oral com a conclusió tècnica.

Què farà la investigació de l’NTSB

L’incident va ocórrer en espai aeri grec. Segons l’Annex 13 de l’Organització d’Aviació Civil Internacional, l’estat on passa un accident pot delegar la investigació a un altre estat. L’autoritat grega ho ha fet a l’NTSB, i Grècia hi participa com a representant acreditat.

La decisió té sentit perquè:

  • el Boeing 737 va ser dissenyat i fabricat als Estats Units;
  • l’NTSB té laboratoris i experiència extensa amb aquest model;
  • el motor CFM56 és un programa francoamericà;
  • l’agència ja va investigar els casos de Southwest de 2016 i 2018.

L’equip previsiblement estudiarà:

  • gravadors de vol i de veu;
  • dades de manteniment i operació;
  • motor, pales, disc, carcassa, entrada i cobertes;
  • finestra, marc, junta i elements de retenció;
  • trajectòries i marques dels fragments;
  • resposta de pilots i tripulants;
  • lesions i posició dels ocupants;
  • notificacions i inspeccions aplicables a la flota.

L’objectiu d’una investigació de seguretat és prevenir nous accidents, no repartir responsabilitats penals.

Què van fer bé els ocupants i la tripulació

Amb la informació pública disponible, diverses barreres van funcionar:

  1. els passatgers pròxims van reaccionar i van recuperar l’home;
  2. les màscares d’oxigen es van desplegar;
  3. els pilots van descendir ràpidament;
  4. l’avió va continuar volant amb un motor afectat;
  5. la tripulació va tornar a l’aeroport de sortida;
  6. els serveis mèdics esperaven a terra;
  7. la resta de passatgers va poder continuar més tard en un altre avió.

Que l’aterratge fos normal no resta gravetat a l’emergència. Mostra que la formació, la redundància i els procediments estan pensats perquè una cadena de fallades no elimini totes les opcions alhora.

Què ha de fer un passatger en una despressurització

  • Mantenir el cinturó cordat quan està assegut.
  • Si cauen les màscares, posar-se primer la pròpia.
  • Estirar la màscara per iniciar el flux si així ho indiquen les instruccions.
  • Cobrir nas i boca i respirar amb normalitat.
  • Ajudar una altra persona només després de tenir oxigen propi.
  • No aixecar-se ni intentar recuperar objectes.
  • Seguir les ordres de la tripulació.
  • Recordar que la bossa de la màscara pot no inflar-se encara que flueixi oxigen.

En una emergència real, el descens, el soroll i les màscares poden fer que la situació sembli descontrolada. El procediment prioritza oxigen, control de l’avió, descens i aterratge.

Conclusió

El vol FR1879 va patir una emergència excepcional: un problema greu al motor dret va coincidir amb l’obertura d’una finestra, la pèrdua de pressió i l’arrossegament parcial d’un passatger cap a fora. L’ajuda dels ocupants i la resposta de la tripulació van permetre recuperar-lo i aterrar sense víctimes mortals.

El vídeo explica bé per què la pressurització, la redundància de les finestres i el cinturó importen. Cal corregir, però, el seu excés de certesa sobre l’origen del dany. A 27 de juliol del 2026, l’NTSB encara ha de determinar si la seqüència va començar per un objecte extern, una fallada interna o una combinació de factors.

El paral·lel amb Southwest 1380 ajuda a formular preguntes, no a copiar una resposta. La conclusió fiable arribarà quan els investigadors puguin reconstruir cada fragment i publicar-ne les proves.

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  1. 0:00 , obre el vídeo en una pestanya nova

    Now to some terrifying moments on a jetliner over Greece when a passenger was almost sucked out of a window. Ryanair says the flight was headed from Greece to Germany when a cabin window detached. Sources to the ABC News passengers had to hold onto the man's feet for about five minutes to keep him in the plane. A man gets sucked out of a Boeing 737 and lives to talk about it. What happened? This just happened. Ryan air was operating 737-800 out of Festinal Leaky Greece and on its way to Germany. I think it was a Memengen Germany was where their destination was and it's 16,000 feet. One of the passenger windows let's go. Why did the passenger window blow out? Because the right engine was failing as the right engine was coming apart. Components from that right engine pierced apparently one of the passenger windows. And so all those windows or pressure windows, it broke both of the outer pressure pains of the window and the window blew out. At that point, a passenger, a 61 year old Serbian gentleman seated in the window seat was partially sucked out of the airplane. His head and shoulders made it all the way out of the airplane. His wife, seated next to him, grabbed him by the belt. Some able-bodied passengers grabbed his legs. They were able to haul him back in the airplane. All of the oxygen masks came down at the same time. The airplane was depressurizing. The crew up front had their hands full with a pressurization loss with an engine failure and a crippled 737. All right, there is so much to get to. in this. But that's the nuts and bolts of what happened. I want to show you the picture here now after they landed of all the masks that are dropped, but more specifically the window that blew out. Now, I'll give you the details about what you see and what you don't see with the window and what's really important. So let's roll the video right now. We're going down, taking a look at there's the seat. You can see the window right there. All right. He's going to write about here. I'm going to stop it right there.

  2. 1:42 , obre el vídeo en una pestanya nova

    Now, you can see that the oxygen mask came down. That was the seat that gentlemen was seated in. He had his seat belt fasten and that saved his life. Friends, how many times have you heard me say, keep your seat belt fasten regardless of whether the sign is on or off? You never know when something's going to happen and it might just save your life. Now, is this a common occurrence? Well, Bang in there. It's more common than you might think and I'm going to tell you a story here at the end about a time this happened before in the dramatic circumstances under which it happened. But hang on there for that. Alright, take a look at this window. Look at this. I'm going to zoom in a little bit. Let's bring it down a little bit. You can see kind of the ragged edges right here of the inner pain of acrylic glass. Everything is gone in there. All the pressure panels, both of them, plus the other pressure barrier, plus the scratch paint, all gone that generally got sucked out there, everybody grabbed them. They were able to pull them back in, but that window didn't cause the rest of the frame around it, and the air frame itself to come apart. Why? Take a look at the structure of the window. It's rounded in each one of its four corners. Hmm. Is that by designers?

  3. 3:24 , obre el vídeo en una pestanya nova

    for aesthetics. It's by design back in the 1960s I believe it was. There was an airplane called the comet and it might have been the late 50s but it was. The comet was an airplane that flew overseas. It was a European airplane primarily but it had square windows and in those square windows there were square like this piece of paper is right right up in the corner of the square window. It started to create little fatigue cracks. Why? Because the 90 degree angle at which that corner was, you know, engineered. And they didn't notice the little hairline cracks, but in a lot of the windows around the airplane, these little hairline cracks, and after they pressurized the airplane just a few too many times, with all those little cracks, many of the windows gave way and the entire airframe came apart. I think there was one, maybe. two or three accidents where the entire airplane came apart in flight with passengers in it. That called, it was an emergency. They called for complete redesign and a focus on what happened when they recreated the accident. They realized that these little fatigue cracks were causing the windows to come apart. Ever since then, every window on every airliner is rounded in the corner. It's strengthens the window and it prevents those little hairline cracks. You didn't know that, but now you know. Alright, that's why the window is rounded in each one of its corners. How did this window detach? The windows will not normally detach by themselves. There are a number of different structural pains I'll explain in a minute. This was hit by something coming from the outside. That's the only way one of these windows, or I suppose it could be hit by something from the inside. But again, you would have to have a lot of force to break out these windows. But an engine coming apart? Certainly a piece of the Nacell on the outside of the engine coming off and hitting the side of the airplane. Yeah, that would do it if one of the turbines came off of the engine they haven't done the post mortem on the engine failure yet But if one of the turbines came and punctured that window that would be enough to cause all of the pressure on the inside to then blow out that window and whoever's seated next to that thing is gonna go for a ride He perceived belt fastens so you don't go for a complete right now horrifying with that be all right now the next question is

  4. 5:06 , obre el vídeo en una pestanya nova

    is this common? Well, it's extremely rare to be quite honest. It doesn't happen very often and when it does, it makes front page news just like this story right here. But the windows are rounded in the corner as I explained. Each one of those windows, the pressure on the windows about 8 to 9 PSI pounds per square inch on the window. So when you add it all up, it's about a thousand pounds of pressure on each one of those windows. Now, how are the windows structured? That's really important, because that's gonna save the day and that's why you don't hear about this hardly ever at all. Now, let me roll you up here to cross section of the windows. Take a look at this. There's some frames, there's the double or there's the aircraft scan. You can see the arrow pointing that. Then there's another double around the inside. Those are just frames to hold the window in place. Then there's the window frame itself. That's to make it look pretty. But as you notice from the picture, I just showed you. The window frame was intact. It did not give way. I'll show you another picture here, or schematic in a minute, shows you how many bolts are in that window frame. I mean, it's securely bolted in there. We'd have to be catastrophic failure for that thing to come apart. But there's an outer pain, there's an inner pain, and then there's a little thing that's called a scratch pain.

  5. 6:48 , obre el vídeo en una pestanya nova

    And actually, I think there ends up being four pains altogether. What are the, alright, number one is this. There is the outer pain, that's the structural pain, it's made out of acrylic. It's the one that holds all of the pressure of the airplane interior inside the airplane. Remember, the airplane is pressurizing from the inside out. You would think, if a window were to give way, it would blow in. It blows out. Why? Because all the pressures on the inside of the airplane, that's so you can breathe at altitude. So the airplane is being pressurized on the inside that outer pain is what holds all that pressure in. Now inside of it is a middle pain. It's the exact same. type of pain, but it's there as a backup to the outer pain. If for some reason that outer pain should fail, the middle pain then will take the structural load of the pressure that is now upon it, right? But it just sits there kind of as a stand-by weighton to be called on in an emergency. There's another pain and I did a short video on this, I don't know about a year. You're in a half ago where I said hey you're sitting in the past your seat and you look and you notice a little bit of hole at the bottom of the window and it's anything hmm I wonder if that's it every window and you look over the window next door and then one across the way and every single window on the airplane has a little pin hole and it'll drilled all the way through it You wonder is that there for a reason it's absolutely there for a reason it's called a bleed hole And that bleed hole is there to help relieve or alleviate the pressure differential if that outer pain should depart the airplane so that immediately the second pain doesn't go as well. So that little that little bleed hole that it equalizes the pressure on both sides and it also makes it so that you don't

  6. 8:31 , obre el vídeo en una pestanya nova

    have fogging on the inside of the window, right? You can't moisture in there and have the windows on the airplane to be fogged up all the time. That little hole, relieving it's alleviation. Now, there's another structure on the inside. It's called the scratch pain. Why is that there? It's there to keep you from putting something in that little bit of hole. So you can't get to the pain that's got the hole in it. So that you don't stick something in it and trust me folks. You say, well, I would never do that. Well, somebody would, right? Somebody's kid would stick gum in it or you'd get a tooth pick and you go, hey, I wonder if it fits in that hole and you break it off in the hole. Right? You're sitting on an airplane for hours on end and you get bored and you would try to stick something in that hole. So there's a scratch pain so you can scratch the window and you don't scratch the... either one of those structural pains or that bleed hole so that it does its job. And there's a lot of thought that went into the different pains of glass on a passenger window. And that's there for your safety. It's extremely rare that one of them would come apart now. I tease you at just a minute ago I said, has this ever happened before? Well, in fact it has and it happened in a very dramatic way. This is back in June 10th of 1990. It was a Bach 1-11. It was British Airways Flight 53-90. It was from Birmingham to Malaga Spain. Now you can pronounce it, Malaga, Malaga, I suppose you could. I've been there several times. I've heard it pronounced every different way. Let me know in the comments what you think the proper pronunciation is. You should be of ML-AGA Spain. All right, but they're on their way in a 17,300 feet and let me show you the picture actually. Let me show you one more thing because I'm reference that frame. All right, before we get to this look at the frame. Here's a schematic of the frame. Now there's the outer window over in the left side, but look at how this frame is bolted in. There's like one, two, three, four all the way around. They're like eight or ten bolts holding that frame in. So it would have to be a catastrophic failure.

  7. 10:13 , obre el vídeo en una pestanya nova

    for that frame to let loose, but you can see the outer pain and then the inner pain and then there's a retainer and then there's that scratch pains on the inside of all that. All of that is designed to hold the window together. All right, back to BA 5390. It's on his way from Birmingham to Spain. It's a 17,300 feet when the captain's window blows out, it blows out in flight and the captain, Timothy Lancaster, is partially sucked out of the airplane very similar to this. Half his body ends up out of the airplane. What happened? Why didn't he get sucked completely out? Because he too had his seat belt on. Now is the requirement for me as a captain and my first officer. Anybody else in the cockpit? We must have our seat belts fastened at all times. Why? because of something like this. So when I first got hired as an airline pilot, this had just happened the year before I got hired. And everybody was talking about that story. And I thought, okay, I'm keeping that seat belt fast no matter what. It might just save your life someday. So folks, just hang on to that thought. So it saved the captain from being ejected from the airplane completely. But now the air stream on the outside of the airplane is so forceful, 250 to 300 knots. It just pins in against the side of the airplane. Why didn't he get bejected all the way out of the airplane? It wasn't just because of the seatbelt. It was because of the fast action of a flight attendant who just happened to be coming into the cockpit at the same time. First, a flight attendant, Nigel Ogden.

  8. 11:55 , obre el vídeo en una pestanya nova

    It just arrived in the cockpit when this whole thing took place the airplane had to pressurize so he didn't get sucked out But he grabs a hold of the captain's belt and he grabs a hold of his legs and he holds onto him The first officer is busy flying the airplane it was complete bedlimp up in that cockpit. Let me show you a picture of the Bach 1-11 that's the airplane. All right. It looks like an old DC 9 or a fat You know, MD 11. But it's kind of a squadty little airplane but it engines in the back. But there's the front of the airplane with the captain's window on his side window. All right. That's a buck 11 11. Now, here is the actual view of the cockpit of the windows that blew out. So you got a window in the front that blew out. See that's all gone. And you got the one on the side. Now I don't know if this side window is pulled back. I think it's been pulled back. I think the captain got pulled sucked out of this front window if I'm not mistaken about that but those of you who know more about this incident let me know in the comments I think you got sucked out that front window and then you just got to cut got plastered against the front of the airplane as they're trying to hold onto him so he doesn't get pulled out of the rest of the airplane so Nigel Ogden grabs the hold of him holds on him holds on him for 20 minutes to the point where he's just completely exhausted. They get some other people to come up to the cockpit in the meantime to relieve Nigel, holding onto this captain. But the the air stream is so forceful that they can't pull him in. What's going on in the cockpit? That front window is gone. It's bedlam in the cockpit. You can't hear yourself. Think you can't even You can't even gather your own thoughts. So the first officer who's talking on the radio probably nobody could hear him and he couldn't hear anybody because of the noise in the cockpit. I'm here to tell you if you blow out a window like that every little bit of dirt and dust and piece of paper boom it's like an explosion up in the cockpit. The first thing is the first officer is going to be rubbing his eyes trying to get all the dirt out of his eyes trying to get his bearings on what happened. He's got to get his oxygen mask on, right? They're fortunately they were only at 17,000 feet. So the oxygen thing wasn't all that

  9. 13:37 , obre el vídeo en una pestanya nova

    urgent right, but you gotta get the airplane back down again. He can only slow it down so much and so they're holding onto the captain right what happened to the captain the captain returned to duty five months later. This is a minor miracle already returned to full duty five months later, he had some injuries however, he had broken his right arm, I think he broke his wrist and a thumb. There was some other injuries, he was obviously a shock for a little while. This was the one that was the most surprising injury. He suffered frostbite. It's that cold up at Altitude and he was outside the airplane for that long that he suffered some frostbite, which I think is understandable now, but take a look at this picture one more time. Do you see all this right up here in the upper right hand side? of the picture. I think that's blood. I think that's blood. I think this guy was hanging out. I don't know if he was hanging out over the top of the window or the bottom of the window, whatever it was or the side, wherever he was. I think that that's that was some blood up on the side of the aircraft. I don't know that for sure, but it sure looks like that to me Unbelievable that they were able to land the airplane safely everybody on board was safe the captain was rushed to the hospital now. What do we know about the passenger that was Partly sucked out of this Ryan air flight well all we know is that he doesn't have any life threatening injuries. He might

  10. 15:19 , obre el vídeo en una pestanya nova

    Be fine. I don't think so. I think that it's gonna take a while to recover from something like this But we know he's gonna make a full recovery and everything with the reports I read so far is that this was not a life threatening injury due to the fast reaction of his wife and the able-bodied passengers near a vibe that we're able to grab a hold of him and I'm gonna say two things one where you're seat belt the number two guys Where up belt okay? Where on a leather belt might just save your life someday. I hope this never happens to you or it never happens to another passenger. Well, you know more about the structure of airplane passenger windows, then you probably wanted to and you probably know more about the history of people that have gotten partially sucked out of airplanes than you wanted to. But that's what happened just yesterday as this British airways flight was on its way to Germany returned back to Greece. Everybody was fine. They landed safely and they gentlemen was taken away to the hospital. Well, now you know, I'm Captain Steve. Fly safe.