Sunday, April 12, 2009

HOW AMERICAN AIRLINES DID A MAINTENACE GROUND RUN ON A DC-4.



HOW AMERICAN AIRLINES DID A MAINTENACE GROUND RUN ON A DC-4.
BACK IN 1948

American Airlines performed a pre flight inspection to include an engine run up, with ground operational test of all engines. on their aircraft after the completion of each DC-4 periodic inspection type No. 1, No. 2 or No.3 inspection or whenever a flight lays over for four hours or more or after termination or cancellation at a station where the airlines mechanics are available, and prior to the origination of any scheduled flight.

The following procedures are taken from American Airlines DC-4 Pre-flight inspection procedures. 1947

STARTING PROCEDURE

1. Four men are generally needed to make the run up, two in the cockpit and two on the ground.
2. The engines will be started in the order3-4-2-1
3. In starting #3 and #4 the mechanic on the right side controls the fuel booster pump switches, and the starter mesh and primer switches with his left hand, leaving him free to observe the engine operation and actions of the ground personnel on his right. The mechanic on the left controls the throttle setting with his left hand and mixture control with his right while observing the oil pressure and R.P.M.
4. In starting #2 and #1 the mechanic on the left side controls the start mesh and the primer switches with his right hand leaving him free to observe the operation and ground personnel on his left. The mechanic on the right controls the fuel booster pumps and mixture controls with his left hand and the throttles with his right while observing the engine oil pressure and R.P.M.
5. Connect nose wheel torgue links and park brakes. (Hyd Pressure up)
6. Switches off…pull props through two turns at least six blades in direction of rotation.
7. Store ladder and tail post on aircraft.
8. Connect battery cart. Close all cargo doors and cabin doors.
9. Turn Inverter and all necessary lights on.. Navigation and cockpit all others off.
10. Turn magneto master switch “ON”
11. Station fire guard in position outboard and to the rear of the engine being started. Position safety guard were he can see the cockpit
12. Turn tank selectors “ON” cross feed “OFF”.
13. Open throttle ¼
14. Set Propellers in low pitch.
15. Put supercharger in “LOW”
16. Open Cowl flaps.
17. Turn fuel Booster pump “ON” Pressure 19 ½ lbs @ 24 volts.
18. Set booster vibrator selector to proper engine.
19. Prime for 3 or 4 seconds depending on temperature condition s and temp of engines. NOTE.. Prime only when meshing and engine is turning.
20. Receive “ALL Clear “ from safety man.
21. Energize the starter for 10 to 15 seconds max, then engage mesh switch. (induction vibrator is connected to mesh switch. Hold both start and mesh switches down until engine starts or a max of 15 seconds. Then allow a 30 second cooling period before attempting another start.
22. After engine has turned over two revolutions then turn individual engine mag switches to “BOTH “ positions
23. Move mixture control to auto rich as soon as the engine starts to fire. Return mixture control to idle cut off if engine stops firing.
24. Run engines at 800 R.P.M. until oil pressure comes up, increase to 1,000R.P.M. for engine warm up. Oil pressure 80 to 120lbs.
25. CAUTION.. If oil pressure fails to come up within 30 seconds after starting, stop engine and investigate.
26. Turn fuel Booster pump “OFF”
27. Start engines #4 #2, and #1 in the same manner.
28. Switch to ship’s batteries after all engines are running and have ground personnel remove the battery cart and fire equipment.
29. Check Hydraulic fluid level and pressure..3,000 lbs and brake operation before moving ship.
30. Check oil pressure at 1000 R.P.M. 40lbs @70 Deg. C, oil temp.
31. Check Fuel pressure at 1000R.P.M. 22 lbs plus or minus 1 lb.
32. MOVE AIRCRAFT ONLY AFTER RECEIVING “ALL CLEAR” FROM GROUND PERSONNEL.





PROCEDURE FOR GROUND OPERATIONAL TEST
AND ENGINE RUN UP.

1. Operate #2 engine at 1800 R.P.M. and idle the remaining engines, then knock of the hydraulic pressure by operation the wing flaps. Note the Hydraulic system pressure build up. Repeat operation to check #3 pump. Hydraulic regulator should then be checked to see if it kicks in and out at 2700 to 3000 lbs. The main system relief valve should be checked to see that it is holding at 1800 lbs and assured by use of the nose steering wheel which should be in operative.
2. Taxi the Airplane and check the left and right brake operation. Nose wheel steering shall be checked by steering the ship from one extreme to the other while the airplane is in motion at slow speed.
3. Check cowl flaps on all engines to see that they move to closed, trail and full open positions. CAUTION Keep cowl flaps open during all engine ground operations.
4. With all engines operating at 1000 rpm momentarily turn each magneto se=witch from “Both” “Right” “Left” and “OFF” positions to check for dead magneto and to check the “Ground Circuits”
5. The fuel system should be checked so all engines will operate with possible combinations of wing, tank cross feeds and tank selector valves. Check individual wing tank selector valves to make certain it will cut off the fuel supply when placed in the “OFF” position.
6. Check sequence and operation of wing deicers. Pressure should be between 7 and 8 lbs. Record the pressure on the form,. Cycle should be completed in 40 seconds. Note warning light operation… Bleed A/P system by opening speed valves to #2 position. Open auto pilot oil valve. Operate each control to full extreme position by means of direction control knob and hold in each position for at least 30 seconds. NOTE : Repeat preceding instructions if spongy condition exists (Air in the System) Return all controls to neutral and check to make sure that each control can be overpowered in both directions. Record A/P pressure which should be 125 lbs +- 5 lbs on form. Trun all A?P speed valves and oil pressure valves to “OFF” position.
7. Record vacuum pressures from both left and right pumps.
8. Horizon and Gyro -4” HG +-1/2
9. Turn and Bank -2” HG +-. 1”
10. Bank and Climb – 4 ½ HG +- ½ “
11. With propellers in low pitch turn up the engines to operate at 25” manifold pressure and approximately 2000 rpm shift prop controls (slowly) from “Low” to “High” pitch several times to bleed air out of the prop domes. Approximately an 800 RPM drop should occur when shifting the propellers.
12. With the engines running at approximate cruise position, check the alignment of the propeller and throttle controls.
13. Note: if necessary to re-adjust check alignment with engines set at 2100 rpm and 32” manifold pressure.
14. Check Generators at 25 “ manifold pressure for balance of voltage and amperage. Should be recorded on form Voltage must be 28 volts, amperage must not vary more than 10% of the load.
15. Check the fuel flow gauges to see that they operate as the throttles are advanced. Setting should be checked at 25” and recorded on ground test form. Should be approximately 240 to 260 lbs per hour.
16. Record Cylinder head temperatures of all engines. Maximum allowable temp 200 Deg C



17. NOTE: Check on maximum head temperature during all times when ground testing the engines.
18. Operate engines at 25” MP apply carburetor heat . Temperature should have a rise of 40 Deg. C minimum.
19. Operate engines at 25’’ MP and shift the supercharger to “High” position. Blower shifting should occur within 5 seconds, with a rise in manifold pressure approximately 1 “ NOTE if the blower fails to shift after each attempt the control shall be returned to the low position to allow the clutch to cool.
20. Record MP as the following checks are made
21. With Fuel pumps off record engine fuel pump pressure at 30” of MP. Pressure should be 22 +-
22. Record engine oil pressure with engine operating at 30” MP . pressure should be 90 lbs =- 5 lbs at oil temp of 70 Deg. C.
23. Record engine RPM at 30 “ MP RPM of R-2000-13 engines should be 2100 =- 100 R.P.M.
24. Operate engine at 30 “ MP check individual magnetos for roughness and drop off, ( Observe engine roughness by looking at the engine) maimum dropoff aloud is 75 R.P.M. if engine is smooth.
25. Record oil temperatures of all engines after operating them at 30” MP
26. Record idling R.P.M. of all engines should be 500 R.P.M. +50 -0
27. With all engines operating at 1000 R.P.M. throttle one engine back top idling. If the lights do not come on, then momentarily move the mixture control to idle cut off. Check the pressure where the fuel and oil warning lights come on then return the mixture to its original position before the engine stops. Do the same with the remaining engines to check their individual warning circuits. Fuel pressure warning light 19 lbs +1 lb. Oil pressure warning light 45 lbs +- 5 lbs.
28. Hydraulic fluid supply should record “normal in flight “ with maximum pressure on hydraulic system and the flaps in the up position.
29. Prop feathering operation shall be checked during run up while the engines are running at 1500 R.P.M. NOTE: Leave the button in only until drop in R.P. M. is noticed then pull it out.
30. Mechanic who ground tests the airplane shall sign his name u=in full and enter the time of day to certify that the engines are airworthy.
31. Radio mechanic shall sign his name in full and enter time of day upon completion to check the radio is airworthy.
32. Foreman or Chief mechanic shall sign his name in full certifying that all forms have been completed.




STOPPING THE ENGINES

1. Run engines at 1000 R.P.M. in “FULL RICH” permitting the Cylinder head temperatures to cool below 200Deg. C
2. With engine at 1000 R.P.M. move mixture control to “IDLE CUTOFF” When it has stopped turning turn off all individual and master switches.
3. Leave cowl flaps open to permit engines to cool so ignition insulation will not be affected by residual heat in engine.
4. Place fuel tank selector valve handles, all electrical switches and master switch in the “OFF” Position.


Sunday, March 29, 2009

The Allegheny Airline's Convair's CV-440..CV-580's Great Airliners



This is a little study of the great Convair liners. As a kid I would sit on the coal banks in the eastern anthracite region of Pa. actually Pottsville area with my converter, which converted an AM radio to vhf and I could listen to New York center, and Reading Approach, as many CV440's and 580's flying with Alleghney Airlines would over fly my home area. They came cruising in a low alttitude on V-30 and sometime would hold over my hometown, they were great times for a kid that loved the airlines.




I took these photo's as a 14 year old kid at the Reading Airport, Pennsylvania. I would talk my Dad into taking me to the airport and leave me there for the day. Remember when you could walk right on the flight line or get as close as safety would permit! 1963



More From Reading Airport, PA. Allegheny Airline Convair 440..1963


Allegheny CV-580


Allegheny CV-580
By 1975 they were all up for sale!

Wish I could buy one!




I took this photo of a Convair 580 at Reading Airport, Pa.

Wednesday, March 18, 2009

DC-3 DITCHES IN THE MONONGAHELA RIVER MCKEESPORT, PA. 1954


DC- 3 Ditching in the Monongahela River
On January 15, 2009, the news was filled with the miraculous story of US Airways Flight 1549 a regularly scheduled commercial passenger flight from New York City to Charlotte, North Carolina that ditched in the Hudson River six minutes after departing from LaGuardia Airport was told. The aircraft was an Airbus A-320. The entire crew of Flight 1549 was later awarded the Master's Medal of the Guild of Air Pilots and Air Navigators. The award citation read, "This emergency ditching and evacuation, with the loss of no lives, is a heroic and unique aviation achievement.
Ditching an aircraft into a body of water has always been a last resort because it is a maneuver fraught with danger. On the ocean ideally the aircraft should be ditched along the line of the waves rather than across them but on a river it is a different scenario. How to avoid ploughing into the water at 100mph or more, and cart-wheeling and breaking up the aircraft.
On December 22, 1954 a DC-3 had to ditch in the Monongahela River near Pittsburg. This story had a much different outcome. This is the story of the investigation of Johnson Flying Service Flight 4844-C a CAM (Civil Air Movement Of Military Personnel)Flight from Newark, New Jersey, to Tacoma, Washington. All the information gathered and put into a story by myself is from the records of the actual CAB Accident Investigation Report released on April 8, 1955.
This flight did not have as good an outcome as flight 1549 had..


Johnson Air Service DC-3
Crash Monongahela River.

At approximately 2300,1 December 22, 1954, a Douglas DC-3C, N 24320, owned and operated by. the Johnson Flying Service, Inc., Missoula, Montana, was ditched in the Monongahela River because of fuel exhaustion while making an approach to the Allegheny County Airport, Pittsburgh, Pennsylvania. Ten of the 28 persons on board, including one crew member were drowned. The aircraft was damaged slightly by the water landing, but received substantial damage while it was being removed from the river.


The aircraft was serviced with 170 gallons of 100 octane fuel which was placed in the two main tanks in equal amounts, making a total of 225 gallons according to the weight and balance manifest. A preflight inspection of the aircraft was performed by Captain Grekowicz with no discrepancies found. According to the company's Weight and Balance Manifest the aircraft at the time of departure weighed 25,317 pounds, which was within the allowable gross weight of 25,346 pounds; the load was distributed within the prescribed limits with respect to the center of gravity of the aircraft. Prior to departing Newark,

THE FLIGHT
The flight from Newark to Tacoma was planned to be flown with intermediate stops in Pittsburg, Pa. Colorado Springs, Co. Monterey, California and Tacoma Washington.
The crew Consisted of Captain Harold A. Poe, Captain Joseph J. Grekowicz, and Co-pilots Clarence E. Chapman and Charles R. Carter. Captain Robert P. Walker, the fifth crew member was used as the cabin attendant for the departure from Newark.

ACCORDING TO THE MANIFEST

ON THE RAMP AT NEWARK
23 Passengers were boarded on the aircraft.

FUEL ON BOARD
Fuel 170 Gallons of 100 octane fuel.
The fuel was distributed in equal parts between the two main tanks. According to the manifest.

WEIGHT AND BALANCE
@ time of departure the aircraft weighed 25, 317 pounds within the maximum TO weight of 25, 346.
The load was distributed in accordance with prescribed Center of Gravity computations.

THE ROUTE AND FLIGHT PLAN
Prior to departing Newark, Captain Poe filled with the CAA by telephone a flight plan indicating a flight to be made in accordance with visual flight rules (VFR) to the Allegheny County Airport, Pittsburgh, Pennsylvania. The route to be followed was via Amber 7, Green 3, and Red 21 Airways.
2. The flying time to Pittsburgh was estimated to be one hour and forty minutes, at a true airspeed of 155 knots, with two hours and forty minutes of available fuel.

THE FLIGHT COMMUNICATIONS TIMES
20:38.. Departure Newark
22:06. .Douglas 4320 over Phillipsburg. VFR Estimating Westover, Pa. at 2219. Over
22:20.. Altoona.. This Douglas 4320 on 126.7mc?Over
22:21.. Altoona.. This is Douglas 4320 on 126.7? Over
22:21.. Douglas 4320..Pittsburg Do you Read? Over
22:22.. Douglas 4320 Pittsburg Do you Read? Over
22:22...Westover radio, Douglas 4320 on 126.7? …..(Westover is beacon and has no voice facilities.)

22:23.. Douglas 4320 Pittsburg do you Read? Over
22:25..Brookville Radio, Douglas 4320, over Westover at 22:20 Estimating Pittsburg
22:52 Over

22:38. Pittsburg Radio, Douglas 4320 is fuel available at Johnson Marker? Over
22:38.. Douglas 4320, Pittsburg..Reference Fuel at Johnstown, they have 91/96 octane and lower and we’re attempting to contact Allegheny Airlines at Johnstown now to see if they would be open at this time of night. The air guide doesn’t list any hours that they are open. You’ll have enough fuel to land at Allegheny County, original destination, Won’t you? Over
22:38.. Douglas 4320, Roger..not sure, Pittsburg can we have the runway lights at the Johnstown Airport turned on?Over

(At this time Pittsburg tried to contact Johnstown Airport by telephone and inter phone without success.)

22:39..Douglas 4320, Pittsburg we are unable to contact Johnstown. But will continue to try.Over
22:44..Pittsburg, Douglas 4320 we are over Johnstown Airport. Over
22:44..Douglas 4320 Pittsburg..Standby. Still trying to contact Johnstown. Over
22:47 ..Pittsburg, Douglas 4320 passed Johnstown will continue to Allegheny County. Over
22:49.. Douglas 4320, Pittsburg do you wish us to continue to try and contact Johnstown? Over
22:49 Pittsburg, Douglas 4320 we will continue to Pittsburg, do you have information on other fields where we might land? Over
22:50..Douglas 4320 Pittsburg Radio, Nothing for a DC-3 Douglas 4320, It’s either Greater Pittsburg or Allegheny County, over.
22:52..Douglas 4320, Allegheny weather , Clear, temperature 20 , dew point 10, wind south southwest 9.. What is your altitude? Over
22:52.. Pittsburg Douglas 4320, 3,200, over
22:53.. Douglas 4320, Pittsburg, winds aloft, 3,000 , 260 degrees 10 knots.
22:54..Pittsburg, Douglas 4320 we are 7 miles east of the Allegheny County (Airport and can see it, We are crossing the river can see the field lights.\
Pittsburg Radio then called Allegheny Airport Tower and advised them that N4320, A DC-3 was approximately 10 miles east, low on fuel, and was landing at the airport. The tower requested that the aircraft change to their frequency.)
22:55 ..Douglas 4320, Pittsburg Radio, contact Allegheny tower on 121.3, over
22:55 Pittsburg, Douglas 4320, we don’t have 121.3 but will contact the tower on 126.18. Over
22:55 Pittsburg Radio, Roger.
22:55.. Allegheny Tower, Douglas 4320 , landing instructions, over.
22:55.. Douglas 4320, Tower you are cleared for a straight in approach to runway 27, please report when 3 miles out. Weather, wind southwest variable south, calm to 10, altimeter 29.84. over.
22.56..Allegheny tower , 4320, 3 miles east on final approach. Over.
22:57..Douglas 4320, Cleared to land.
22:57 Allegheny Tower, 4320, is out of gas.
(22:57 At this time the tower observed the flight 2 miles from the airport)
22:58.. Dougl;as 4320, can you make the field? Over
22:58.. I doubt it very much, we have both engines feathered , we are coming down over the red lights. I don’t know if we’ll make it or not, We are at 2,000 feet.
22:58 We are going to set it down.

(The tower observed the aircraft make a left turn and head toward the south. It then disappeared from the controller's view below the hills southeast of the airport. Necessary calls pertaining to the emergency were Immediately effected. The aircraft, heading in a southerly direction, was ditched wheels up in the Monogahela River at approximately 23:00. The Captain, Harold A. Poe, who was flying the aircraft, and nine passengers were drowned.)



TAG PHOTO TO ENLARGE
ROUTE OF FLIGHT OF 4320 FROM JOHNSTOWN TO McKEESPORT CRASH IN RIVER
Ditching was one and one-half miles south of the McKeesport, Pennsylvania, bridge and approximately two miles southeast of the Allegheny County Airport. The aircraft came to rest about 35 feet from the west bank of the river at a point which is 600 feet below the elevation of the airport. According to witnesses it floated for a short time and was completely submerged in approximately 15 minutes. Prior to sinking, the current of the river turned the aircraft to the left and slowly moved it approximately 450 feet downstream to a position about 75 feet from the west shore.

Following ditching all passengers were evacuated through two emergency exits, one over each wing. None of the passengers or crew received injuries during the ditching. The last person to leave the cabin was Captain Walker, who estimated that it took approximately seven minutes to get everyone out of the cabin and on the wings or fuselage. Some of the passengers could not swim and the icy waters made it difficult for even good swimmers to reach the shore.

DITCHING PROCEDURE FROM DC-3/C-47 FLIGHT MANUAL

After recovery from the river the aircraft and engines were examined and found to be capable of normal operation at the time of the accident. Each of the four fuel tanks contained approximately a gallon of fuel. Water In varying amounts found in these tanks was unquestionably the result of the aircraft's submersion in the river.

Copilot Chapman stated that the engines and aircraft functioned in a normal manner throughout the entire flight.

THE PROBABLE CAUSE DEFINED BY THE CAB;
l.
The crew, the aircraft, and the carrier were properly certificated.

2.
The company did not properly check the competency of the crew in accordance with their operations manual prior to flight assignment.

3.
The aircraft was overloaded at time of takeoff.

4.
The flight was improperly planned, and was not conducted in accordance with the company's operations manual.

5.
The captain, contrary to the company's operations manual, passed a suitable refueling facility after being advised that if the flight continued to its destination it would be necessary to use reserve fuel.

6.
Weather along the route was good and approximately as forecast.

7.
The aircraft was ditched in the Monongahela River, two miles from its destination because of fuel exhaustion.

Probable Cause

The Board determines that the probable cause of this accident was fuel exhaustion brought about by inadequate flight planning. Contributing factors were inadequate crew supervision and training.



THE INVESTIGATION BY THE CAB FOUND:

It is apparent that this accident was operational in nature. Many things must be considered in properly planning and completing a flight. The general conduct of this flight clearly indicates poor judgment, carelessness, and lack of supervision and training. The fact that a Flight Plan and Log was not prepared prior to departing Newark and that the copilot did not know the route to be flown was the result of poor crew coordination and flight planning.

While it is not known exactly how much fuel was on board when the aircraft departed Newark, it is apparent that there was not a sufficient amount of fuel to fly to Pittsburgh by either of the planned routes and arrive there with any margin of safety. The elapsed time of the flight from takeoff to ditching was two hours and twenty-two minutes. Considering the altitude and distance flown, and the various power settings which the copilot testified were used, together with other known factors, it is calculated that approximately 260 gallons of fuel were consumed. This would have made the aircraft overloaded at the time of takeoff.

The passengers’ baggage when recovered weighed more than that shown on the manifest. In addition, the operations manual required that the baggage of all crew members and the flight kit be weighed and this amount shown on the manifest. While it is not possible to determine with precise accuracy the total weight of all the above-mentioned items, it is obvious that the aircraft was overloaded at the time of departure. The inclusion of any additional weight to the figures shown on the weight and balance manifest would have reduced the allowable fuel load below the minimum of 200 gallons required for takeoff.

Captain Poe estimated the flying time to Pittsburgh to be one hour and forty minutes. The distance, along the route shown in the CAA flight plan, is approximately 271 miles. To accomplish this in the estimated time would require an average ground speed of 163 knots. With the wind along the route forecast to be from the northwest and west averaging over 17 knots at the planned cruising altitude of 4,000 feet, this ground speed is unrealistic. Under these conditions a reasonable ground speed would be approximately 126-130 knots and would require an average elapsed time of two hours and seven minutes.

The Flight Plan and Log which Copilot Chapman prepared after departure included many mistakes, among which were: Wind directions and velocities different from those that were forecast; a higher . Airspeed than is reasonable to expect for a DC-3 unless flying at higher altitudes; airways which differed from the route filed by Captain Poe; some stations, courses, and radio frequencies that did not agree with either the filed CAA flight plan or the airways shown on the Flight Plan and Log; some errors in ground speed of 13 knots or more; and an estimated total time which exceeded the one hour and forty minutes estimated by Captain Poe. The estimated ground speed used was 148 knots, whereas the actual ground speed made good averaged only 126 knots.

The company operations manual states, "The average hourly fuel consumption for a DC-3 to be used in flight planning is as follows: 80 gallons." Based on this figure the 225 gallons on board, as shown on the weight and balance manifest, should have allowed the aircraft to remain airborne for two hours and forty-eight minutes. Instead, the fuel was exhausted in two hours and twenty minutes of flight. There are many variables such as power settings used, altitude flown, and load, to mention but a few, which must be considered in order to accomplish any flight at a specified average fuel Consumption.

It could not be positively determined just where the aircraft was when it reported being over Johnstown at 2244; however, if it had been over Johnstown at this time, the average ground speed from Johnstown to the point of ditching would have been about 178 knots. This ground speed is unreasonable, considering the headwinds encountered in that portion of the flight and the fact that power was reduced to conserve fuel. Copilots Chapman and Carter testified they believed they were over the Johnstown radio beacon and later over the airport area. However, when there they did not see the airport rotating beacon, runway lights, or the lights of the city. These lights were on at the time and should have been seen if the aircraft was in that vicinity. It appears, therefore, that a navigational error must have been made and that the aircraft was actually some place else. As an example, it may have been over the New Alexandria radio beacon, which is approximately 27 miles west-northwest of the Johnstown Airport and nearly on course between Westover and Pittsburgh.


One of the cardinal rules of safety which is set forth in the operations manual is, "Pilots are not to pass up a refueling facility unless they have sufficient fuel and oil to reach the point cleared within reserve limits established." On the subject flight Captain Poe was advised when the aircraft was near Philipsburg, an available refueling point, that to continue the flight would necessitate the use of reserve fuel. Again the crew demonstrated a decided disregard for the principles of safety by passing an acceptable DC-3 refueling airport.

The captain's judgment may have been influenced by his desire to accept the entire assigned payload in an effort to save money for his company. This limited the amount of fuel which could be carried and made necessary frequent and costly en route refueling stops. Because of this he my have elected to use a part of his reserve fuel to extend each leg of the flight. It is incredible that an air carrier aircraft flown by accredited personnel could be forced down for lack of fuel on a short night flight in good weather when me think of the great progress aviation has made to date, particularly with respect to pilot training., aircraft instrumentation. Navigational aids, and airport lighting.

The Aircraft

The aircraft, N 24320, a Douglas DC-3C, was owned by Johnson Flying Service, Inc. The aircraft was currently certificated by the Civil Aeronautics Administration and had a total of 5,738 flying hours. It was equipped with Pratt and Whitney model R-1830-S13CG engines and Hamilton Standard 23E50-473 propellers.


Air Carrier

Johnson Flying Service, Inc., is a noncertificated irregular air carrier, incorporated in the State of Montana, with its principal place of business in Missoula, Montana. It operates under Letter of Registration No. 916 issued by the Civil Aeronautics Board and Air Carrier Operating Certificate No. 7-1033, issued by the Civil Aeronautics Administration. These certificates authorize the company to transport by air persons or property internationally, overseas, and in the continental United States.

Flight Personnel

Captain Harold A. Poe, age 32, was employed as a captain by the company May 5, 1953. He was senior captain in command and a company check pilot. He held a currently effective airline transport certificate with an appropriate rating for the subject aircraft. He had a total of 7,600 flying hours, of which 1,500 were in DC-3 type equipment. His last CAA physical examination was accomplished August 23., 1954. His last equipment check was on December 17, 1954, and last instrument check on August 10, 1954.

Captain Joseph J. Grekowicz, age 26, was employed by the company as a copilot on October 13, 1953. On December 17, 1954, he became a reserve captain when he was issued an airline transport certificate for a DC-3 by a CAA designated examiner and company check pilot. He had a total of 2,450 flying hours, of which 800 were in DC-3 type equipment. His last equipment and instrument check was on December 17, 1954, and his last CAA physical examination was on August 24, 1954.

Copilot Clarence E. Chapman, age 35, was employed as a copilot by the company on December 17, 1954. He held an airline transport certificate with commercial privileges., with an appropriate rating for the subject aircraft. He had a total of 6,200 flying hours of which 1,700 were in DC-3 type equipment. His last CAA physical examination was accomplished April 16, 1954. His last equipment check was on December 17, 1954.

Copilot Charles R. Carter, age 35, was employed as a copilot by the company on December 17, 1954. He held an airline transport certificate with an appropriate rating for the subject aircraft. He had a total of 7,400 flying hours, of which 3,700 were in DC-3 type equipment. His last CAA physical examination was accomplished August 17, 1954. His last equipment check was on December 17, 1954, and last instrument check June 28, 1954.

Captain Hobart Pringle Walker, age 35, was employed by Johnson Flying Service as a captain on June 12, 1953, furloughed in March 1954, and rehired in December 1954. He held an airline transport certificate with an appropriate rating for the subject aircraft. He had a total of 8,700 flying hours, of which 990 hours were in DC-3 type equipment. His last CAA. physical examination was accomplished May 20, 1954. His last equipment and instrument check was on February 13, 1954. On the subject flight he was employed as a cabin attendant.































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Thursday, February 26, 2009

6,000 MILES ON AN EL AL BRISTOL BRITANNIA



I have always thought the Britannia was pretty cool looking aircraft. I only had the opportunity of seeing one in my time.

This great article came from an old copy of Flight Magazine on 3 January 1958.

Entitled 6,000 Miles in an El Al Britannia Impressions of a Fifteen-hour 400m.p.h. Record Flight from New York to Tel-Aviv By J. M. RAMSDEN


THE headlines in the Jerusalem Post of December 20 said that our Britannia had smashed 16world records. I am not quite sure what they all were, but of two things I am certain. First, that by flying the 6,100 miles from New York to Tel-Aviv non-stop in a time of 14 hr 57 min, we had flown farther, and faster, than any other commercial air- liner. Second, we had convincingly demonstrated that the Britannia is not just a long-range turboprop according to the brochure. I might add that our flight was more than an "anyone-could-do-it" operation with full tanks and a tailwind: as I hope to show, El Al know how to get the best out of the Britannia.

We had some difficulty at New York with there fuelling. No matter how hard the El Al engineers tried, they couldn't get full tanks. New York's Avtur had an unusually high specific gravity; had the bowser been capable of delivering at a high enough pressure we might have achieved full tank- age. (Compared with London's 50 lb/sq in pressure, at New York we got only about 35.) As it was, having first drained the tanks and then made careful estimates of fuel mass by measuring its s.g. and temperature, we took off 275 Imp gal short of the Britannia's 8,547 Imp gal maximum usable. For this reason it was decided to remove all but one row of the six-abreast tourist seats, saving about 2,000 lb (and converting the aeroplane—as someone remarked during the trip—into a long-range ballroom).

We passengers sat in the 18 first-class seats at the back end. I asked whether we made any difference to the trim, remembering how on a B.O.A.C. Britannia 102 trip last year our hefty captain's retirement aft for dinner had cost us 4 kt. But it was reckoned to make no difference on this aeroplane, notwithstanding the critical nature of our flight, and we were certainly very comfortable in our berths and slumberette seats. There were 25 people on board, made up of two flight crews (totalling ten); three technicians from Bristol and D.H. Propellers; three journalists besides myself (representing the Manchester Guardian, Time and the Israeli Press); Mr. J. E. D.Williams, an Englishman who is in charge of El Al's planning and development; Mr. Yoel Palgi, El Al's deputy managing director; and seven others. Our commander was El Al's chief pilot, Capt. Zwi Tohar, a wartime R.A.F. Bomber Command pilot (Wellingtons) who has been flying the Atlantic for El Al since the airline was formed in 1948.

The idea was to get up high quickly and to cruise as high as possible without running into the Britannia's Vno of 250 kt. Ideally, for maximum range, we should have cruised at the speed for minimum drag, i.e. at maximum L/D, drifting up in a cruise-climb as we burnt off fuel weight. But this idealized method of getting the most out of a turbine aeroplane is no longer permitted for traffic control reasons, so we made the most of the stepped-climb procedure. We took off at 0630 G.M.T. (Zee, as the Americans call it), and climbed fast, leveling out at our first selected cruising level of 25,OOOft, an odd-number quadrantal height since we were flying eastwards. Our take-off weight was161,000 lb, considerably less than the new approved gross of 180,000 lb for the Britannia 310-serics.


Soon after take-off the stewardess switched off the cabin lights, since it was long past our American sleeping time. I arranged to talk to "Jed" Williams and to Mr. Palgi in the morning. It was the phrase "in the morning" which more than anything measured the length of the journey ahead. In the next 15 hours we were to have a night's sleep, breakfast, lunch, and dinner— and we would still have three hours to go before arriving overhead at Lod Airport, Tel-Aviv. People had been in commercial airliners for 15 hr and more, of course, but they had not covered the JUST before Christmas the Israeli airline El Al played an overture tithe inauguration of their transatlantic Britannia services by flying non- stop from die U.S.A. to Israel. The author of this article, a member of the staff of "Flight," was on board. He describes the journey, and gives his impressions of how the first foreign operator of Britannia* is settling down with its new aircraft. distance—6,100 st. miles—we intended to travel in that time.

The Bristol representative winced slightly at the way the Manchester Guardian heaved himself into his berth, explaining with mocking reproof on behalf of his stress office that steps were provided for this operation. Those of us in sleeperettes were probably just as comfortable as the lucky four in berths, with our5 3 in of fully-reclined pitch and our woolen El Al rugs. Those in the normal 42in pitch first-class seats slept soundly, though Think the I.A.T.A. surcharge for a sleeperette will be found to be worth $50. Cost of a berth is $75, and providing one has the privacy of curtains I think this is worth the money too. The soporific hum of the Proteus and the confining effect of the lowered berths made our cabin very cozy.

Up Front on the Britannia
Before finally settling off I strolled up front. The duty crew, in their grey gold-braided uniforms, were intent and pre-occupied. The Jetstream forecast by New York met. could not be found, though we had changed course twice. "Jed" Williams, who had had a hard day at the airport, was comparing his radio- and pressure-altimeters and keeping watch on the outside temperature gauge, trying to get wind of the elusive Jet stream by the rapid tell-tale changes in pressure and temperature. He reckoned that the forecast stream we were seeking had changed direction from northwesterly to north, and a cross-check with a weather-ship tended to confirm this. Unless we found a tailwind soon, it was touch and go whether we would make Tel-Aviv non-stop.

When we were awakened for breakfast at 11.30 G.M.T. by the stewardess (looking remarkably neat and uncreased after her night in a tourist chair) it was daylight, the sun having risen fast to meteor flight into the dawn. We were now on the third step of our cruise, at 29,000ft. Up front, the crew were more optimistic of our chances. We had found a 90 kt tailwind component for about two hours during the night, and were now being steadily puffed along by a wind component of 30 to 40 kt. In an hour or two we should receive London's six-hourly European met. forecast, and the moment of decision—to press on to Tel-Aviv, or to refuel at Rome—would come somewhere over France. For the time being, gallons-gone versus distance-to-go looked promising, and at 13.10 we began to ascend our next 2,000ft step to 31,000ft. The captain nicked us up on his S.E.P.2 autopilot, maintaining the A.S.I, to within 5 kt of the new (lower) target speed which, according to El Al's cruising charts, apparently worked out at 205 kt for the particular weight, height and outside temperature conditions prevailing.


The point at which one starts the next step is, I was told, very critical: a couple of knots too soon or too late, as the A.S.I, creeps up with decreasing weight at constant height, and quite serious effect on economy results. The actual technique of the climb is also very critical: El Al have tried many methods, including just simply allowing the aircraft's momentum to carry it up. But as the nose went up the speed dropped and drag increased, and this was tried only twice in proving flights. Techniques are:, of course, still being refined and streamlined, and a large document known as the Green Book, which contains cruising tables, charts and recommended practices for all routes and conditions, constitutes El Al's operational bible. El Al have worked all this out for themselves in the course of paper operations going back to September 1955, and in proving flights since last September when their first aircraft was delivered. I was allowed to look at the Green Book, but not to make notes from it. My impression of this document was that it appeared to be an exceedingly work-manlike effort to get the most out of the Britannia, its two fundamental precepts being to extract the most value from every pound of fuel, and to make things as simple as possible for the crew. "Seventeen years as a practicing navigator," remarked Jed Williams, "have tended to make me avoid fancy techniques, how- ever good they may be in theory." They had no "prima donnas or special wizards" in El Al.

Full realization of the detail of El Al's performance work For the record flight to Tel-Aviv 11 rows of tourist seats were removed, as shown here, because full pressure-refueled tankage could not be obtained at New York. dawned on me when I noticed in the Green Book detailed Britannia charts for the 200-mile London-Paris sector. At least three different operational techniques were considered, the conclusion being that block time and fuel consumed were much of a muchnnes, the approach techniques being likely to waste more money than this or that kind of cruise.
I asked about the extent of Bristol's support, and whether it was not unusual for an airline—particularly one as small as El Al —to be expected to do so much basic performance work. It was unusual, I gathered, but Bristol had provided them with a Tel-Aviv-based performance engineer, and had very quickly learnt that a theoretical cruising grid, say, was not always sufficient in airline practice. Of the rest of Bristol's technical support, I was later told by Mr. Palgi that it has been "of the highest possible order."


I asked why El Al's scheduled London-New York times were faster than B.O.A.C.'s (10 hr 50 min westbound, compared with 12 hr, and 8 hr 30 min eastbound, compared with 9 hr 50 min).I never really got a conclusive answer to "that loaded question," as a Bristol representative described it, so I expect that the truth lies somewhere between a little optimism on one side and a little cautiousness on the other. I know that both airlines have been out to break the Atlantic "four-minute-mile"—New York- London in eight hours—and El Al actually got within three minutes of it on a proving flight on December 7. But a good deal of nonsense has been spoken and written about the trans-Atlantic Britannia rivalry between El Al and B.O.A.C. It has been said that the Israeli airline was all-out to beat the British Corporation in the introduction of transatlantic Britannia ser- vices. This is not so, though it may have appeared to be so. A storm in a teacup was caused by a $3,400 full-page El Al advertisement in the Herald Tribune of December 6. (The president of Aeronaves de Mexico, whose Britannia 302s were at that time due into New York on December 16, was so impressed that he asked to reproduce it at Acronaves' expense in Mexico City newspapers.) The advertisement showed a photograph of the sea, with the heading: "Starting December 23 the Atlantic Will Be 20 Per Cent Smaller," and the caption: "Watch for the inauguration of the first jet-prop service across. the Atlantic, introducing the Bristol Britannia."

A BOAC Britannia


At this time B.O.A.C. had stated that their Britannia services El Al carry one stewardess and three stewards on Britannia services. Until now El Al have not offered first-class service, but they are learning very quickly about the scale of the competition in this kind of business, and are offering a high standard of service would start "within the first three months of 1958," though the Corporation were unofficially aiming for December 19. Flight, November 29.) B.OAC then officially announced that their inaugural service would be on December 19. Brig-Gen. E. Ben-Arzi, managing director of El Al, is reported to have said when asked that no one in Israel felt anything but pleasure that B.O.A.C. should be first on to the Atlantic with Britannia’s.

The vigor and drive of El Al's advertising and public relations in New York is impressive. No opportunity is lost to get the Britannia "jet-prop" (never once did I hear mention of the word turboprop) into the newspapers. I even heard America's "Mr. Television," Milton Berle, getting "the folks to give it a big hand." El Al's view is that Americans don't buy things, they're sold them—and 60 per cent of El Al's traffic originates in the U.S.A. I incidentally learnt quite a lot about American-style public relations during a morning in El Al's New York office. The airline's reaction to a scurrilously inaccurate Britannia story in an influential popular magazine was not protest and a demand for correction: instead they took the view that the fault was partly their own, and they set about getting a new and different story into the magazine. When the U.S. press rang El Al they always seemed to be given full information, which isn't easy when head office is 6,000 miles away.

By 1600 hr the sun was fast receding behind us, and we were flying into the dusk. We were over Marseilles, and crossed- fingers were the reply received by someone who asked whether we were going to make it. One moment I looked down at Marseilles in daylight; when I looked out a moment later it was dark. The Proteus engines, humming imperturbably after ten hours, had merged into the blackness, their bulk intermittently illumined by our flashing roof-top beacon. The altimeter showed 33,500ft, the odd 500ft indicating that we were now flying European airways. We started our climb to 35,500ft—a comparatively slow ascent to our final cruising level. This was jet height, unlikely to be reached by payload-laden Britannia’s in service. But temperature, as much as weight, determines cruising level: it was — 65 deg C outside, and we stayed at 35,500ft for the next four hours until it was time to descend. It might conceivably have been worth climbing to 37,500ft, but by 20.15 G.M.T., when our speed and weight were ready for the next2,000ft step, it was time to chop the throttles for the descent to Tel-Aviv.

Just before darkness I talked with Mr. Yoel Palgi, El Al's deputy managing director. Like his managing director, Brig-Gen. Ben-Arzi, Mr. Palgi wears a permanent, genial smile. He became a legendary figure during the war as a Resistance leader in the Balkans; his understanding of the air transport business is apparently also something of a legend.

I began by asking him why, with El Al's Lockheed affiliations, and his country's associations with wealthy Jewish interests in America, they had chosen the Britannia. Because it was, in their opinion, the best technical product available, he replied. Did he think the Britannia would hold its own against the big jets? Ten hours out from New York, with another five to go before reaching Tel- Aviv. "For a while," he said, "perhaps until 1963." Opinions differed within El Al, but his view was that in order to maintain the market-penetration which he hoped would be achieved by the Britannia, they might have to think about jets in about 1963. El Al, he explained, had no ambitions to be anything more than a minor Atlantic carrier, but they hoped to double their share of the traffic—from its present 1.3 per cent (7,900 passengers in1956) to 2.7 per cent—with their Britannia’s.

I knew that, alone among Atlantic competitors, El Al have always concentrated on tourists, at least since 1952, ignoring altogether the first-class business. I asked Mr. Palgi why this was so, hoping he would go on to comment on El Al's future policy as to I.A.T.A.'s thrift-class fares, due to come into force on April 1. The U.S.-Israel traffic potential, he explained, has not been great enough to justify different classes of service, nor had El Al the right aircraft (four early-model Constellation 049s), the frequencies or the advertising budgets to offer different classes of service. Though El Al had fifth-freedom rights at London, Paris, Rome and Athens, about 80 per cent of their traffic was carried between New York and Tel-Aviv. "People tend to think of us as a way of getting to and from Israel and America: they don’t normally think of us as a transatlantic carrier with European terminals." Hence the neglect hitherto of first-class business, though with Britannia’s they now had an opportunity to promote it. He pointed out that transatlantic traffic between Europe and America had doubled in five years: traffic between Israel and America had increased by only a half in the same time. El Al now had a chance to carry the public they had been losing, though the first-class passenger was "the most unfaithful kind of public imaginable." You had to catch him, "and you can't catch him without competitive service, and the right frequencies. Now we have a chance." The Britannia would concentrate on the Atlantic route, and the 049s would do the European sectors for awhile. Their resale value would probably be small, he admitted.


What had El Al's policy been within I.A.T.A. towards thrift-class fares? He smiled broadly at this question, and I imagined that El Al had made a determined stand on their policy. "In principle, we are flat out for thrift-class fares," he said, but El Al had to consider them in their own specific interests. Thrift fares as proposed in I.A.T.A. were between the European gateways and America; and El Al did not have the capacity to offer tourist-class Early-morning scene at the arrivals area of New York's new international terminal at Idlewild. We hope to describe this remarkable new terminal in an early issue. El AT* Britannia’s will be in and out of New York at a once-weekly frequency tor the time being. fares between Tel-Aviv and Europe, nor were they prepared to meet the time-consuming expense of a change to thrift seating and amenities at their European terminals. In other words, El Al wanted to offer thrift fares right through to Tel-Aviv. But I.A.T.A. resisted this as discriminating against the other Middle East carriers. El Al sought to offer tourist accommodation at thrift fares, their justification for this argument being that, alone among Atlantic operators, their tourist layout had six-abreast seats. They argued in terms of passenger volume, rather thanT.34 passenger pitch, which they maintained does not fully define passenger comfort, since this depends on the design of the seat. In the end El Al won their point. They would offer tourist accommodation for thrift fares—and Britannia travel for good measure. My guess is that they will have a decisive competitive advantage. As generally agreed, free sandwiches and non-alcoholic drinks will be served to thrift-class travelers. Mr. Palgi explained El Al's choice of American Hardman six-abreast tourist seats rather than British types. It was their conclusion that Hardman offered the most comfortable triplet it cost "quite a lot of dollars," and it was heavier. He reckoned that the total weight penalty of installing American chairs in the Britannia’s amounted to 600 lb, but that this was worth it "for the remarkable difference in tourist-class comfort.” I must say I had flown tourist by El Al Britannia to New York without complaint—an 11 1/2 hour trip of which seven were spent sleeping without a stir. There are 12 tourist rows in all, set at 36in pitch on standard-track rails. Some chairs arc upholstered in turquoise, others in grey with turquoise arms. The deep-pile aisle carpet is mushroom, the cabin walls are grey, and the linen window-curtains are patterned in greens and yellows. The general effect is most pleasant, though, with great respect for El Al's taste, it was my personal opinion that the brown "wood-veneer" bulkheads didn't quite strike the right note. They present a real opportunity for what the Americans are calling jet-age decor, and providing an effect can be achieved which does not make the cabin too "busy," and which is serviceable, con- temporary styling of the bulkheads would probably make all the difference to El Al's Britannia’s. El Al have not yet finalized their first-class configuration, pending discussions with the A.R.B. about the quick-release mechanism of the two emergency exit doors at the extreme aft end. This is one of those matters which can, if the authorities insist that chairs must not be in front of exit doors (as they are in front of window exits), mean loss of revenue—and four first-class passengers without sleeping berths or sleeperette-type chairs. I was particularly interested to learn how El Al had organized themselves for the introduction of their new aeroplane. This is a problem which many airlines are now having to tackle. El Al had to decide whether to create a new Britannia group, or to adapt their existing departments to handle Britannia development. They finally compromised, forming in September 1956 a "planning and development group" (under J. E. D. Williams) to handle operations and performance, adapting existing departments to handle comparatively straightforward matters such as training and spares. Though shortage of manpower is El Al's big problem (payroll is 1,300) this has its own advantages—the most important being "speed of communication." Major problems can be settled quickly without resort to ponderous administrative machinery: in the event, El Al's compromise has worked. Gradually, the planning and development group will be allowed to drift back into the existing administrative system. I asked Capt. Tohar about training. I gathered that every pilot has about 160 Britannia hours before he carries passengers— 15 hr conversion-flying and 30 hr flight familiarization at Tel-Aviv, followed by 75 hr of route-proving and a final 30 hr :of check-flying. Expense of the first two items would have been cut had El Al had the Redefine Britannia simulator, but this is not due for delivery until June. Three captains were trained at Bristol, including Capt. Tom Jones, the British flight superintendent. Of El Al's 16 captains, all are Israeli except for three Americans and Capt. Tom Jones. (The airline has no particular policy about the nationality of its staff.) About 120 Israeli engineers have taken aircraft or engine courses (or both) at the Bristol school, or at the new El Al school—"of which we are very proud"—at Tel-Aviv. The number of Bristol-trained instructor sat the airline's school has varied between five and ten. I paid a last visit to the flight deck just before the descent. Some of the crew had, I believe, been on continuous duty for 36 hours, but their jubilation was unconcealed. In progress, in fact, was a light-hearted dispute in Hebrew about the ownership of a banana. Incidentally, there had been no snags. We had made it, with 4,500 lb fuel reserves intact—sufficient for another hour and ten minutes cruising. We had flown a distance of 6,100 miles in 14 hr 57 min; at an average speed of408 m.p.h. (of which about 50 m.p.h. was tailwind). At Lod Airport, as we taxied up to the wailing crowds, the floodlights and the cameras, I heard someone.
remark that El Al had done well for the Britannia

Tuesday, February 3, 2009

FLYING A B.O.A.C. STRATOCRUSIER


Following are excerpts from a story written in the December 1, 1949 issue of Flight Magazine. The article was entitled “Collecting A Stratocruiser”, written by the Editor of Flight Magazine. The full article deals with how B.O.A.C. took delivery of one of their Boeing 377’s. The Acceptance negotiations, and the acceptance flight home to London. I only included the flight home in this blog. The Boeing 377 flown in this article was the
“Caledonia” G-AKGH her first flight was on September 1, 1949, She was Delivered on November 15, 1949.
She was sold to Transocean , August 1958 and registered as N137A, then re registered as N402Q. On September 1, 1960 she was sold to Airline Equipment Company. And in 1963 she was sold to Aero Spacelines. In 1969 she was destroyed in a ground accident at Mojave, Airport. Calif.

A Transocen Stratocruiser
Captain Andrew, who was to fly her home, was on the same Constellation flight as myself on the way to America and Canada—we were thus acquainted in advance. During the extra day one of the jobs was to study the detailed delivery instructions from which details are extracted.
(a) Delivery captains are required to ensure that they themselves and their crew are fully conversant with the instruction and to confirm to the Flight Captain before leaving Seattle that they have read this instruction and have conducted a crew briefing meeting upon it.
(b) Once the aircraft has taken off from Seattle it comes under the normal control of the stations through which it passes and of the overall control of Sub-Line Control at Montreal and Line Control, Filton.
(c) The normal delivery route is Seattle-New York (Idlwild), Gander, London and Filton. Where applicable. Line Standing Orders are regarded as governing the general operation. Aerodrome Limits are a. specific exception. The route followed between Seattle (Boeing Field) and New York (Idlewild) is that used by N.W.A. via Spokane, Minneapolis and Chicago, i.e., Green 2 to Love Rock, Red 14 to Aurora and Green 3- to New York or, avoiding Chicago, via Green 2 to Milwaukee, Red 57 to Toledo and Green 3 to New York. Although Gander is included in the New York-London section, the direct flight may be made provided weather permits and fuel requirements are adhered to. There then follows a proposed time schedule and details, of availability of fuels, carriage of passengers, communications procedures, diversion, navigation and catering orders.
(d) Take-off weight charts are provided for both wet and dry power, and in considering runway lengths account has to be taken not only of wind velocity but of runway

Limits for flight planning for all airports on delivery flights are 8ooft and two miles. For actual landings, at the discretion of the captain, C.A.A. limits for Constellations plus 200ft and one-half-mile may be used. Captains with under 100 hours' experience on Stratocruisers fly to standard limits plus 200ft and half-a-mile. We arranged to forgather at the B.O.A.C. office on the airfield edge at about eight o'clock in the evening, local time, after taking a last dinner in the city. In addition to the crew and supernumeraries there were a few B.O.A.C. representatives—including Mr. Ed. Townsend, Mr. Condon and Captain Burgess—and half a dozen or more Boeing passengers.
We took our luggage down at about nine o'clock and stowed it, some in the after hold and some with the crew bags forward. There was great activity on the airfield, which was brightly illuminated, and work was going on several of the other huge aircraft—B-50’s and Stratocruisers—which stretched away in long lines as far as the eye could see. On our own " ship " ground and air crews were rushing purposefully about, making last-minute checks, and looking to the distribution of luggage and crates. It was a cold, fairly clear, night out-side but in the cabins it was quieter and warmer. One almost despaired of the captain being able to get all the vehicles and tackle and helpers and visitors clear of the aircraft before dawn, but by 10.30 all seemed about ready. It was to me a most moving scene, the atmosphere being very reminiscent of the quayside when a great liner is preparing to leave. Looking larger at night, the silver Strato- cruiser, with little decoration beyond its Speedbirds and UnionJacks, towered above us as we stood by the rear entrance door waiting until the last moment to climb in. With external checks complete, the order came to close the three doors and we were cut off from those outside except for the telephone, through which the flight engineer was preparing to give starting instructions. I moved forward to the cockpit and listened to the crew methodically go through their checks. Before starting, First Officer Sarson read the 45 items on the station check list, then the cockpit check list (26 items), to which the other members of the crew (and sometimes himself) responded as appropriate. For example: —
(13) Wing flaps checked? First Officer: tOut 10 deg on emergency, then off. In on normal, then off."

The Flight Deck
(14)Propeller de-icer? Captain: Off."
(15) Pitot heaters? Captain: tChecked and Off."
(16) Torque line heaters? Captain: On."
(17) Navigation lights checked as required?
(18) No smoking" and seat belts" [indicator switches]checked? First Officer: On."
(19) Radios? Radio Officer: Checked."
(20) Engineer's pre-flight check? Engineer Officer: Completed."
(21) Amount of fuel, oil and A.D.I.? Engineer Officer:" . . . lb fuel, oil, turbo and A.D.I, tanks checked, caps secure."
(22) Pitot covers and gear locks? Engineer Officer: Off and stowed."
(23) Cabin secure? Steward: Cabin secure, cargo doors closed, ship's papers aboard." The complete check took about eleven minutes this first time, but with practice it will be much quicker. Next came starting-up, in the order 3 and 4 then 2 and 1.
Engines are numbered one to four across from port to starboard. It went something like this: Engineer Officer: All clear to start No. 3, Ground? " Ground had previously pulled each engine through eight blades to check for hydraulicking (oil collected above the pistons). The engineer officer prepared all controls with fuel selectors at tank-to-engine position, one booster pump on, mixture control at fuel cut-off, throttles at 800 to 1,000 r.p.m., turbo override switches at take-off, starting selector on 3, and so on. The First Officer, looking back at number 3 engine, called out " One, two, three, four, five, six, seven, eight blades, Eric." Whereupon Eric put the ignition switches on and, after a turn or two more: Engine firing—keep it going." Forward went the mixture control and a little extra throttle seemed to help at first. This procedure was repeated until all four Wasp Majors were running smoothly and quietly behind us. Nine after-starting checks were called out and five more for before taxing, but at this point a considerable drop in the level of the hydraulic-fluid tank (upon which I was sitting) had been noted and reported to the captain; after a moment's consultation it was decided to close down and remedy the matter. The hydraulic tank, situated behind the engineer officer's panel in the cockpit, had been changed during the day and the system drained. The new tank had been refilled but the system had remained empty; consequently, on starting-up the engines, the tank was almost emptied to fill the system. A gang quickly arrived with mobile hydraulic-fluid pump, and some three gallons of cold fluid were slowly persuaded to pass through the filter in the tank filter neck. There was a good deal of homely Anglo- American natter as instructions were passed back down the line: " A bit faster . . .take it easy . . . STOP! . . . now a bit more ... speed 'er up a bit . . . more . . . STOP! " And so we got our fluid. The next start-up went smoothly and quickly, and by mid-night we bad taxied out to the run-up position. There were all the usual checks, together with turbos, airscrew reverse-pitch and others as well. Finally, the 23-item take-off check was called out, starting with all windows secure and flaps25 deg," and ending—from the engineer officer—with standing by for take-off." [In the next part of this article the flight home will be - described.] First refueling of Caledonia at Idlewild Airport, New York, and (right) the engineer officers supervise the operations.
FEW of us, pilots or non-pilots, can remain immune from the thrill, momentarily breath-taking, that accompanies the roar and thrust of engines as an airliner accelerates down the runway and one tenses to the crescendo of noise and throbbing as the throttles approach their stops. It is forgotten immediately as one surrenders to the movement, and the senses change their focus to try to detect the instant of take-off. Not until the earth is falling away does the noise again obtrude, this time to contrast the frenzy of take-off with the almost physical relief which one shares with the engines now purring on the climb. So it was with our Stratocruiser as it raced between the lines of white lights marking the runway at Seattle and, lifting imperceptibly off its wheels :

Those big Pratt 4360's
Seattle to New York : Impressions in the Air : A Change 0/ Airscrews —first the main wheels, then the nosewheel—started to climb before circling the city and setting course for the east. Caledonia's first take-off in the hands of a B.O.A.C. crew—for there is no acceptance test—was smooth and occa- sioned the minimum of action from the pilot. For a start the captain took the nose wheel control and throttles and the first officer the wheel, while the engineer officer followed up on his throttles. An order from the captain and the engineer completed the throttle movement, while the captain, as the rudder became effective, took over the main controls. The maximum take-off power—3,500 b.h.p. per engine with A.D.I.—was used. The corresponding boost and r.p.m. are 58m and 2,700 r.p.m. Only the built-in supercharger is employed for take-off, the turbo- blower being for use at altitude. The speed mounted, 75-80 kt, 90-100 kt, and the first officer called V.1," the speed above which the take-off is continued even if an engine fails or below which engines are shut down, pitch reversed and brakes applied. The V.1 speed varies with load, and on our take-off from Seattle with 132,000 lb a.u.w., it was 98 kt with rudder boost in use ; at full load it is 109.5 kt. Next, " V.2 " was called—the minimum speed for holding direction following an engine-cut. This is equivalent to the three-engine safety speed for the load concerned.
Take-off power is maintained on the Stratocruiser until it is established in the climb, and the gear is on the way up. After this, rated power (2,800 h.p., 2,550 r.p.m.) is used at 140 kt until 200ft is reached and, thereafter, climbing power at 165 kt climbing speed. Normal climb power is held with the aid of the turbo-blower at 50m manifold pressure. The last 10,000 lb of weight up to the 142,500 lb maximum makes a pronounced difference to the feel and length of take-off ; e.g. and loading must also be watched very closely at full load. The aircraft is inclined to nose- heaviness. The magnificent cockpit had impressed me from the start; and now, having seen the crew installed and working in complete comfort, and having experienced a night take-off sitting beside the first officer and with a supemumary captain seated beside the captain, I realized that in this feature at least the Stratocruiser exhibits superior qualities which no crew will wish to relinquish again. The only aircraft I can remember with anything like the space, comfort and view is that Rolls-Royce of old bombers, the Short Stirling. As Caledonia circled Seattle to the right, the huge greenhouse nose offered an unsurpassed view up, down, ahead, sideways and even to the rear. It was quiet enough to talk freely and easily, the ride was smooth, and the temperature was comfortable. The initial climb following a long take-off seemed a little sluggish, but, as height was gained, so the aircraft got into its stride and the rate of climb seemed to improve. An average rate of about 700 ft/min was maintained. Caledonia at Hartford, the home of the United Aircraft Corporation.
Later, as we continued to climb, I walked back into the cabins and made a careful check-up on noise and vibration levels. The two main cabins I found very pleasant, the sound of engines and airscrews becoming more and more remote towards the tail. In the small front cabin and in the toilet compartments (which coincide with airscrews and engines) the noise and vibration are considerable. This, one feels, should be the subject of further examination with a view to improvement. The cocktail bar, however, is per- haps the most comfortable spot of all, and here one can sit and chat as peacefully as in a hotel lounge. It is said that the Stratocruisers wag their tails, and this is true—true, in fact, of almost all large and long aircraft, particularly those with a single fin and rudder; but this effect, and the counter-shudder felt by the crew in the nose, are experienced only in rough air. At the intended cruising height of 25,000 ft there should be little or nothing in the way of turbulence. .. . . No Boredom After this preliminary examination in flight I moved forward again towards the cockpit, having sensed that we had leveled off, and it struck me as significant that only about two of the dozen or more passengers—by no means all seasoned air travellers—had remained in their seats after take-off. The others were wandering around, chat- ting, examining the passengers' instrument panel, or taking a drink below. This was something new ; in my experience of aircraft with which the Stratocruisers will compete, the odd passenger who does anything on a long trip but sit and read, sleep, eat or looked bored, is an exception. These people were not bored and did not become so during the whole of the 9 hr 5 min flight. Admittedly, several turned in on the roomy and comfortable bunks for an hour or two of sleep. I later had a refreshing three hours on an upper port-side bunk myself. Arriving in the cockpit, I noticed that we were flying at19,000 ft at maximum w.m. cruising condition. This I knew to represent 1,750 b.h.p. per engine. Moreover, we were riding in and out of cloud and picking up some ice. It seemed that although the Stratocruiser would climbwillingly to 28,000 or 30,000ft, it would not hold more than about 19,000ft on the permitted cruising power until the weight had gone down a little. At this time we had covered about 240 miles in a little over an hour. With the wing-inspection lights on and thermal de-icers working we watched the ice disperse from the hot parts and heard small lumps fly of the airscrews. More built up, however, on spinners, parts of the nacelles and around the aileron hinges. Soon some slight tail-buffeting could be felt on the controls, and the speed dropped by about 20 kt; so, the crew having little experience of icing with this new aircraft, it was thought prudent to lose height over Spokane and call up for clearance on track at a new height.The ice had mostly gone when the new clearance came through as we circled the area of the city at about 11,000ft. While iced-up we noted a loud, continuous hooting noise above the cockpit, and came to the conclusion it was caused by ice forming on the short radio-aerial masts. It may be desirable to keep these coated with some sort of anti-icing preparation, for the noise was irritating and distracting. It was a great privilege to have been given the freedom of the ship for the long flight home, and one which enabled me to study the conditions of flying from both crew and passenger viewpoints. For the next few hours I settled back and enjoyed being a passenger. Aperitifs and a mealwere served, and later a party of passengers took an early- morning nightcap in the bar. Afterwards I turned in and slept well except for an interruption when part of the heating system stopped working on my side of the cabin. This was nothing very serious, but it is to be hoped that the Stratocruiser is not going to be still another airliner in which an apparently good air-conditioning system proves temperamental. Incidentally, now that these aircraft have started their first operational winter, the heating for the pilots may need further study. The huge expanse of glassmakes the nose portion very cold at 25,000ft, and on one occasion I personally found my legs and feet becoming uncomfortably cool after sitting in the first officer's pew for about half an hour, with the autopilot in control. The captain agreed. On the transcontinental trip (the route of which was included in the map accompanying last week's instalment of this article) we got our first glimpse of scenery between Chicago and Toledo. Before this, only pin-points or patterns of lights during the night and cloud at dawn had been visible below. Captain Andrew made a long, shallow descent towards Captain Alan Andrew is greeted on arrival at London by Captain A. S. Wilcockson, who was Captain of the first Caledonia, a Short C-class flying boat.


Idlewild on the Long Island coast, and in the lower '' thousand teens'' of feet the sun began to warm up the cockpit appreciably. Frozen condensation began to thaw, and, as happens on all large aircraft, '' rain'' came down over crew and controls and trickled over the floor. An addition to the crew equipment, one felt, might well be a rack of small umbrellas for use on descents from high altitudes. . . . Weather was fine and clear as we joined the Idlewild circuit and the New York skyscrapers stood out well in the city haze to the north-west. Radio instructions for landing were brief and to the point, although it took a few moments to sort out the correct strip from the many crisscrossing runways on this huge new airfield. Approach" checks were called out (12 items). They include: brake pressures, seat-belts and no smoking," fuel valves and pumps, cabin (de)pressure, r.p.m., A.D.I, (water/methanol injection for quick overshoot get-away), and flaps 25 deg (speed not to exceed 188 kt). Rounding the circuit, the before-landing" checks followed: 2,300 r.p.m., landing gear checked (down at any speed under 200 kt), flaps as required (30 deg at under 171 kt; 45 deg—the maxi- mum—at under 159 kt), autopilot out, rudder boost on; and others to a total of eleven. Clear for final approach and landing" was signalled from control and the captain, concentrating on flying controls, called for the power he required to maintain a steady approach: "25 inches," "20 inches," and so on. The final extension of the vast area-increase flaps made an appreciable difference, and was called for shortly after the final turn-in had been completed. At about the same time speed was reduced from 140 to 130 kt, and this was held until the check before round-out. A good pull with a little engine on is needed to land in a tail-down attitude with average landing weight and a speed of about 115 kt. The maximum landing weight permitted is 121,700 1b. The Stratocruiser does not land tail-down at all readily, and, in fact, is quite prepared to land nosewheel first. On this occasion Captain Andrew greased her on, and with a burst of power from the inboard Wasp Majors in reverse pitch, we pulled up with half the runway to spare. There followed arrival formalities, admiring examination of the flagship by B.O.A.C. and other staff at Idlewild, preparation of papers for the flight to London next day, clearance for Hartford and, in the odd minutes between, lunch. The flight to Hartford was interposed to permit a change of airscrews—a case of the mountain going to Mahomet. For anyone who is not familiar with the Hamilton Standard air- screws fitted to B.O.A.C. Stratocruisers, a word of description may not be out of place. They are of the four-blade, square- tipped windmill type of 16ft 8in diameter, and they provide for reverse-pitch braking as well as constant-speed operation and manual and automatic feathering. Electric de-icing equipment is provided, and the engine reduction gearing is of °-375:i ratio. Blade angle settings are: fine, 18 deg; feather,86 deg; braking —18 deg. Each blade is built rather like the wing of a light aircraft—though of different materials—with spar and skin envelope. The spar, of steel, tapers off to the tip and the thin steel skin is wrapped round and welded at the open edge and tip. Internally supported by a rubber filling, the skin is attached to the spar by a special brazing process. The reason ipr changing airscrews on B.O.A.C. Stratocruisers, but not as yet on those operated by other companies, is chiefly one of convenience. One or two instances of fatigue cracks in the skin of blades have been discovered, and they result from panting at points near the spar where the rubber filling process has left small cavities. Such cavities can be detected in . advance, filled by injection of cement, and cracking prevented. Test runs with cracked-skin blades have indicated that there is no immediate risk of failure, so other operators based in the United States will attend to their airscrews on the next convenient routine inspections. Balance may be upset, but not by more than 100 in-lb, and as the airscrews are four-bladers, the blades can, it seems, be rematched as opposites, though probably not in the original sequence. Improved sealing against moisture at the roots was also provided when B.O.A.C. airscrews were changed. The short flight north to Hartford, Connecticut, took 1hr 6min (20.30-21.36hrZ). There was no reason to go high, so we had a very interesting view of the country below, though towards the end of the trip light began to fail. Having selected the correct airfield of Hartford's two (which have overlapping circuits but which are separated by the Connecticut River), Captain Andrew took the Stratocruiser in to land on a runway which looked distinctly small after those at Idlewild. In fact, there was plenty of room, and again using only the two inboard engines for braking, we pulled up with plenty to spare and with wheel brakes in reserve. The B.O.A.C. crew and passengers spent a very pleasant •evening as guests of the United Aircraft Corporation—Hamilton Standard and Pratt and Whitney Aircraft Divisions in particular. In the morning we all toured the workshops and - discussed those aspects of the work in the huge East Hartford plant which interested us most. At lunch time, the Corporation kindly arranged for me to fly to La Guardia in its Sikorsky51 in order to have time to examine the Dehmel Trainer before the Stratocruiser *,called in again at Idlewild and then took off at once for London. A foretaste of what may one day be commonplace as provided by the swift, comfortable, door-to-door service of

the helicopter. It also provided me with a magnificent air tour of the north shores of Long Island Sound. And so the time to take leave of the North American conti-nent came round. We had a little farewell party in the restaurant and looked longingly at the stacks of chocolate bars, the food counters, and the slot-machine nylons as we walked through the temporary buildings to the aircraft which had arrived back an hour or two earlier from Hartford. efuelling was complete, and everything had been stowed away ready for the flight. We were assured of quite good weather and a strong tail-wind for most of the Atlantic crossing. The intention was to fly in one hop to Shannon (which, on a great- circle route, takes one near to Gander) and possibly, if winds were sufficiently favourable, to overfly Shannon and go non- stop to London. The take-off from the long, well-illuminated runway was exactly as before—a precision procedure, as it should be—and quickly we climbed up through layers and patches of cloud. Until we neared Gander, flying on the range, the cruising height was again 19,000ft, but as soon as possible we climbed up by stages to 25,500ft, which offered the best compromise in cruising conditions, tail-wind advantage, and keeping clear of the upper cloud-layer. Conditions at this time, as I noted them from the firstofficer's seat, were: height, 25,500ft; 2,200 r.p.m.; 38-39U1 boost; indicated air-speed, 190-195 kt; outside air temperature, -31 deg C (corrected for -7.6 deg compressibility error); torquemeter, 190 lb. The engineer gave me the air-craft weight as 117,500 lb. Making a few calculations, the corrected air speed turned out to be 282 kt, and the navigator confirmed that with the 45 kt tail-wind the ground speed was 327 kt. From torquemeter pressure, a constant and the r.p.m. (190x0.0043x2,200), the output per engine worked out at a fraction under 1,800 b.h.p.—a little over the 1,750 at present recommended but under the makers' quoted figure of r,9oo b.h.p. : Operational Economy If full advantage is to be taken of the Stratocruiser's per-formance it is important that the full cruising power of 1,900 b.h.p. be available for use as soon as possible. This will permit a higher cruising altitude from the start of the journey with full load. It remains to be seen whether Stratocruisers can operate as economically as their older competitors on the North Atlantic route. Certainly they will have the great advantage of being able quite frequently to cut out intermediate stops on the west-east flights and of being able to fly east-west atfull load without a delay for refuelling in Iceland. Passengers bound from London to New York do not take very kindly to stops at Prestwick and Gander, let alone an additional one in Keflavik in the small hours of the morning. By 7.30 hr Z we were 19 minutes ahead of schedule, and if the favourable wind continued right across, a single hop" with a chance of a record time was quite possible. Once we were well established on the North Atlantic leg of the flight I returned to the cabin for dinner, first watching the steward and stewardess in action in their new galley. It seemed to me that they had insufficient room to lay out meals or stack used trays and dishes, even for the limited number of meals served on this occasion. Certainly practice should improve matters, but it may be necessary to ask all passengers not to pass the galley when meals are being served, and also to provide some folding shelves in the recess leading to the main door immediately opposite the galley, for use during mealtimes. Seeing coats and hats folded on unused seats also reminded me that 110 coat-hanging space is provided in the B.O.A.C .layout. The mid toilet-compartment might well be replaced by hanging space if full aircraft are expected, for I feel sure few passengers will care to use it in its present exposed position and with its present dimensions. This is not to say that an additional toilet is not required at the rear, particularly if the layout is to be kept flexible with two-class travel in mind. Could not, perhaps, one of the places on the rear triple-seat be sacrificed in favour of a rear toilet behind the steward's desk? The lack of space for hanging coats is also apparent in the crew compartment, and here again the possibility of modifying a toilet compartment—something less elaborate would satisfy most crews—so that better clothes-hanging facilities could be made available, might well be an improvement. As we flew on through the night sky, clear now of all upper cloud and bright with moon and starlight, I realized how much I was enjoying the flight on the Stratocruiser. This employment had been increased by the free, friendly spirit which had existed all along among crew and passengers. There is, of course, a corresponding camaraderie in r, ship—a feeling of all being in the thing together—and the same regret on having to disembark at the journey's end. A visit to the cocktail bar seemed to have its points, so down the stairs I went. The mirrors at the forward end help to give an impression of spaciousness, unavoidably offset to some extent by the cramped (though probably adequate) little bar and food lift each side of the door to the aft freight compartment. One must look behind the mirrors, which can be folded down, for undercarriage emergency retraction. Provision is made for two flap motors to be removed bodily, if need be, and attached to the undercarriage winding shafts. The luggage compartments are all pressurized and accessible in flight; in fact, the only three portions of the fuselage not pressurized are the nosewheel box, central wing area and tail cone. Elaborate precautions against fire 1 have been provided, immediate warning being given by carbon monoxide and smoke detectors. Masks and oxygen a-e provided for emergencies, to enable the crew to locate and extinguish afire among freight and baggage. So sensitive are the CO. detectors that they have to be desensitized when the aircraft is on the tarmac or awaiting a turn to take off, because the carbon monoxide from the exhaust of other machines in front will give a false warning in the aircraft. With these and other thoughts in mind I decided once more to sample the comfort of the roomy bunks, and remembered nothing more until bright sunshine flooded through the small upper porthole and Ireland was less than an hour away. It seemed that the helping wind had died out midway across, and so we were to make a routine landing at Shannon. In fact, we flew in over the damp, deep-green Irish fields—each unbelievably small after the vast expanses of Canadian ranches and American farms—and touched down at 11.56,after 9 hours 18 minutes in the air. Of the hour and three-quarter flight on to London after breakfast there is little to say. The ride was smooth and comfortable, and our American friends were most interested to see the Brabazon assembly hall—though no Brabazon as we flew over Bristol. A wet and hazy Heathrow soon came into view, and with the minimum of delay we were down and cutting engines on the tarmac. Crew and passengers were subjected to a brief and orderly immigration, health and customs examination ;then, as the passengers embarked for London on the coach, the B.O.A.C. crew prepared to fly their flagship back to base at Filton.