Federal Circuits, 5th Cir. (March 13, 2001)
Docket number: 99-41036
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U.S. Court of Appeals for the 5th Cir. - in the Matter of the Complaint of Luhr Bros. Incorporated, as Owner, Owner Pro Hac Vice, Operator And/or Charterer of the M/V the Admiral, in the Cause of Exoneration From And/or Limitation of Liability, Civil and Maritime, Plaintiff, Luhr Bros. Incorporated, Petitioner-Appellant, v. Barre Shepp; William Coon; Matthew M. Shepp, Estate Of; Audrey Jerome; Allen Jerome, Estate Of; Connie Sue Valverde, Individually and as Representative of the Estate of Matthew Marvin Shepp, Deceased, Claimants-Appellees. the Estate of Allen L. Jerome, Owner of the F/V Audrey, Praying for Exoneration From or Limitation of Liability, Plaintiff, Luhr Bros. Incorporated, Claimant-Appellant, v. Barre Shepp; William Coon; Connie Sue Valverde, Individually and as Representative of the Estate of Matthew Marvin Shepp, Deceased; Matthew M. Shepp, Estate Of, Claimants-Appellees., 157 F.3d 333 (5th Cir. 1998) as Owner, Owner Pro Hac Vice, Operator And/or Charterer of the M/V the Admiral, in the Cause of Exoneration From And/or Limitation of Liability, Civil and Maritime, Plaintiff, Luhr Bros. Incorporated, Petitioner-Appellant, v. Barre Shepp; William Coon; Matthew M. Shepp, Estate Of; Audrey Jerome; Allen Jerome, Estate Of; Connie Sue Valverde, Individually and as Representative of the Estate of Matthew Marvin Shepp, Deceased, Claimants-Appellees. the Estate of Allen L. Jerome, Owner of the F/V Audrey, Praying for Exoneration From or Limitation of Liability, Plaintiff, Luhr Bros. Incorporated, Claimant-Appellant, v. Barre Shepp; William Coon; Connie Sue Valverde, Individually and as Representative of the Estate of Matthew Marvin Shepp, Deceased; Matthew M. Shepp, Estate Of, Claimants-Appellees.
U.S. Court of Appeals for the 11th Cir. - USA v. Charles Crawford, Jr. (11th Cir. 2005)
Appeal from the United States District Court for the Southern District of Texas
Before DUHE, EMILIO M. GARZA, and DeMOSS, Circuit Judges.DeMOSS, Circuit Judge:This personal injury case arises from an October 19, 1995, helicopter crash near the Haig Glacier in Western Alberta, Canada. Defendant American Eurocopter Corporation, Inc. (AEC) appeals the district court's final judgment in favor of Peter McLennan (McLennan), which was entered after a bench trial on the relevant issues. McLennan cross-appeals the district court's reducing his damages on the basis that he was 40 percent at fault for the accident that led to his injuries. Concluding that McLennan's proof at trial was plainly inadequate to establish one or more of the essential elements of his substantive claims, we reverse and render judgment in favor of defendant AEC.FACTUAL BACKGROUNDI.On the day of the crash, McLennan flew his AEC Model AS-350-B helicopter for longer than the fuel loaded on board would allow, eventually crashing into the side of an embankment not far from his final destination. McLennan, a Canadian resident, suffered serious injuries from the crash, which also destroyed the helicopter. In this lawsuit, McLennan contends that AEC, the manufacturer of the helicopter, is responsible for his injuries and resulting damages under Texas law on theories of both strict products liability and negligence. Both of McLennan's theories focus upon alleged marketing defects in the helicopter. Specifically, McLennan claims that AEC affirmatively marketed the helicopter as suitable for McLennan's intended use, slinging operations,1 when in fact the helicopter was unreasonably dangerous for that use. McLennan also claims that AEC failed to warn or adequately warn intended users that dirty or worn portions of the fuel measurement system might not accurately reflect the amount of usable fuel in the helicopter when the helicopter is consistently flown at low fuel levels. AEC responds that the helicopter was not unreasonably dangerous for its intended use; that AEC owed no duty to warn users of any risk arising under the circumstances of McLennan's flight; that, assuming there was a duty owed, it was completely satisfied by the issuance of service letters and bulletins before the crash notifying consumers of the risk and recommending that the portion of the fuel measurement system at issue here be replaced; that the alleged marketing defects were neither the producing (strict liability) nor proximate (negligence) cause of the crash; and finally, that the crash was caused instead by improper maintenance or pilot error or both. AEC also raises two alternative arguments challenging the district court's pre-trial rulings denying AEC's motion to dismiss for forum non conveniens and AEC's separate motion seeking the application of Canadian, rather than Texas, law.AEC seizes upon the fact that the district court adopted plaintiff McLennan's proposed findings of fact and conclusions of law almost verbatim to argue that we must apply a less deferential standard of review to the district court's findings of fact and conclusions of law than would be the case if the district court's order reflected an independent consideration of the relevant issues, citing In re Luhr Brothers, 157 F.3d 333 (5th Cir. 1998), cert. denied, 119 S. Ct. 1357 (1999). We disagree. Luhr Bros., and Anderson v. City of Bessemer City, 105 S. Ct. 1504 (1985), from which it is drawn, make clear that the district court's decision to adopt one party's proposed findings and conclusions without change may cause us to approach such findings with greater caution, and as a consequence to apply the standard of review more rigorously. See Anderson, 105 S. Ct. at 1511 (criticizing verbatim adoption of proposed findings and noting the potential for "overreaching and exaggeration" on the part of counsel for the prevailing party); Luhr Bros., 157 F.3d at 338 (stating that "near-verbatim recitals of the prevailing party's proposed findings and conclusions, with minimal revision" should be approached with "caution" and that the district court's "lack of personal attention to factual findings" is a factor to be considered when applying the clearly erroneous rule) (internal quotations omitted). But Luhr Bros. and Anderson make equally clear that the basic clear error standard governing our review is set by Federal Rule of Civil Procedure 52(a) and remains constant. See Luhr Bros., 157 F.3d at 338 (citing Anderson, 105 S. Ct. at 1510-11, for the proposition that "the trial court's adoption of the prevailing parties' proposed findings, however, does not alter the bedrock principle that the findings may not be overturned on appeal absent clear error"). While the clear error standard is purposefully deferential to the district court, we are not required to rubber stamp the district court's findings simply because they were entered. See Luhr Bros., 157 F.3d at 338 n.14. This would be no review at all. "When, after an examination of the entire evidence, we are left with the definite and firm conviction that a mistake has been committed, clear error exists and it is our duty as the reviewing court to correct this mistake." Id. at 338-39 (internal quotations omitted). The district court's legal conclusions, on the other hand, are reviewed de novo. See Ivy v. Jones, 192 F.3d 514, 516 (5th Cir. 1999)II.On October 19, 1995, McLennan was employed as a commercial helicopter pilot by Canadian Helicopters, Ltd. (CHL), one of the largest commercial operators in the world.2 On that day, McLennan was contracted to assist with the closing of an industrial base camp near the Haig Glacier. McLennan began his day at CHL's Canmore, Alberta hanger. When McLennan left Canmore hanger at 2:44 p.m., the helicopter's 530 liter fuel tank was 35 percent full. The fuel tank installed on McLennan's helicopter at the time of the crash retained 11 liters of unusable fuel. Therefore, McLennan began work with approximately 175 liters of usable fuel. Pursuant to his training, McLennan verified the amount of fuel on board by visually checking the fuel gauge, the fuel tank level,3 and the meter on the fuel pump dispensing the fuel.Shortly after the accident, McLennan gave a recorded statement to the Canadian Transportation Safety Board (CTSB). McLennan told the CTSB that CHL pilots use a fuel burn rate of 173 liters per hour for planning such flights, but that the actual burn rate "was quite a bit less than that, probably around 150 liters per hour."4 CHL pilot Paul Kendall likewise testified that CHL pilots use a burn rate of about 170 liters per hour for slinging operations, and that he personally trained McLennan to follow that rule when flying the AS-350-B. The CTSB used a mid-range estimate of 160 liters per hour in its report on the accident. Using CHL's planning rate of 173 liters per hour, McLennan left Canmore hanger with about 61 minutes flying time before complete fuel exhaustion. Using McLennan's more optimistic estimate of only 150 liters per hour, McLennan left Canmore hanger with about 70 minutes flying time before complete fuel exhaustion would cause the helicopter to fall from the air.Canadian Air Regulation 544(b) requires helicopter pilots to plan their flights such that they can land at their destination with a 20 minute reserve fuel supply.5 There is a similar regulatory requirement for pilots operating in the United States. CHL likewise had written policies requiring that company pilots comply with the Canadian Air regulation requiring a 20 minute reserve. McLennan was aware of this rule and his obligation to comply with it. Considering the requirement that flight planning allow for a 20 minute reserve upon landing at destination, McLennan actually left Canmore hanger, using the least conservative fuel calculations, with no more than 50 minutes of safe and lawful flying time.McLennan first flew from Canmore hanger to the Haig Glacier base camp. McLennan was not slinging any external load during this flight. McLennan arrived at 2:59 p.m. This one-way flight should have reduced the least conservative estimate of 70 minutes flight time by 15 minutes, leaving approximately 55 minutes flight time before fuel exhaustion and 35 minutes safe flying time, which equates to slightly more than 28 percent fuel.McLennan testified at trial that he actually arrived at the Haig Glacier base camp with about 30 percent fuel, which would have afforded him slightly more than 59 minutes total flight time to exhaustion, about four minutes longer that predicted by his fuel level at Canmore hanger. Adhering to our duty to construe the facts in McLennan's favor, we accept McLennan's testimony that he still had 30 percent fuel when he arrived at the Haig Glacier base camp, as well as his estimate of 150 liters per hour fuel burn rate, which would have left him with just over 59 minutes flight time to total exhaustion.6III.At the Haig Glacier base camp, McLennan shut down, removed and stowed the helicopter doors, tested the slinging equipment, and prepared for slinging operations. According to Michael Just, who helped McLennan secure loads at the Haig Glacier base camp, this shut down lasted from McLennan's 3:00 p.m. arrival time until 3:35 or 3:40 p.m., when McLennan began slinging operations. CHL's Canmore hanger radio log consistently reflects that McLennan began slinging operations at 3:40 p.m. and that McLennan was then in the air continuously until the accident occurred at approximately 5:00 p.m. The CTSB's Aviation Occurrence Report, without referring to any source, states that McLennan did not begin slinging until 4:00 p.m. and that the crash occurred 60 minutes later, at 5:00 p.m. Thus, the evidence demonstrates that McLennan was continuously engaged in slinging operations for somewhere between 60 and 80 minutes before the crash. For purposes of this review, we accept the CTSB's unsubstantiated estimate that McLennan was in the air for only 60 minutes before crashing (the estimate most favorable to McLennan) as fact. Tying this together with the 150 liter per hour fuel burn rate, which would have permitted only slightly more than 59 minutes total flight time, reveals that McLennan ran out of fuel almost exactly when he should have.During the 60 minutes that McLennan was in the air, he moved a number of loads. McLennan first moved supplies from one location to another at the base camp. McLennan recalled two such movements, although another witness recalled only one. Just, who was working on the ground, then hooked up a platform to the long line used for slinging and McLennan flew to a location on the glacier about 1.5 kilometers from the base camp. On the glacier, McLennan picked up a load and then delivered it to the Ranger Creek staging area.7 McLennan then returned to the glacier and picked up a second load to be transported to Ranger Creek. There is no dispute about the fact that there was fuel available at Ranger Creek. McLennan did not pick up fuel on either trip to Ranger Creek. McLennan flew to the glacier a third time, this time picking up a load for delivery to the base camp helipad. McLennan then flew back to the glacier a fourth time, picking up a second load for the base camp helipad. Thereafter, McLennan was asked to move a load from a location at the base camp to another location some distance away. Each of these loads would have required air time to safely attach and detach the loads, in addition to the time required for the actual movement of the supplies. McLennan told investigators that he had a "gut feeling" that he should proceed immediately to Ranger Creek for fuel before repositioning the load at the base camp, but he felt under pressure from ground crew personnel to reposition the base camp load first. McLennan later regretted not following his gut instinct. As he told the CTSB investigator "[y]ou should never try to be a nice guy when flying."IV.Some time before McLennan repositioned the load he should have deferred, the low fuel warning light on the dash of the helicopter illuminated. The AEC flight manual classifies the illumination of the low fuel warning light as an emergency. Other witnesses testified consistently that illumination of the low fuel warning light is considered an emergency flight situation. The AEC flight manual, which McLennan had in his briefcase on the helicopter when he crashed, states that the light is designed to come on when there are at least 60 liters (49 usable liters) or about 12 percent fuel remaining in the tank. At that point, AEC states in the flight manual, the pilot should avoid large altitude changes.8 The manual further states that under those conditions, the remaining fuel should be sufficient for only 25 additional minutes of flight before complete exhaustion. The CTSB Aviation Occurrence Report states that most pilots adhered to the rule that there were no more than 20 additional minutes of flight to exhaustion when the low fuel warning light on this model was illuminated, and that customary procedure was to land immediately when the light began flickering. Other pilots testified consistently that customary procedure was to land immediately when the low fuel warning light illuminated. CHL pilot Paul Kendall testified that he personally trained McLennan to land immediately when the light was solidly illuminated.9 McLennan acknowledged that he generally followed the more conservative 20 minute rule in his post-accident statement to the CTSB. Notwithstanding these circumstances, McLennan ignored the low fuel warning light and continued to fly for a considerable period of time with the light illuminated.At trial, McLennan testified that he noticed the low fuel warning light, but that he had "no idea" how long he flew with the light illuminated. Prior to trial, McLennan told CHL's Chief Pilot Mark Olson that he thought the warning light might have been on for 10 or 15 minutes before he repositioned the load at the base camp, and before he had hooked up to the final load for transport to Ranger Creek. McLennan's expert calculated that, including loading and unloading time, and including the final incomplete journey to Ranger Creek, McLennan flew for almost 33 minutes after the low fuel warning light came on before crashing. Thus, McLennan flew for far longer than permitted by AEC's estimate of 25 minutes to fuel exhaustion, and far longer than permitted by the more conservative 20-minute rule generally employed by McLennan and most pilots. In fact, McLennan continued flying with the light on until he crashed.McLennan first told CTSB investigators that he "just lost track of how much time" he had "been flying with the [warning] light on." McLennan later testified that he felt safe continuing to fly with the light on because the warning light in this helicopter historically illuminated when the fuel gauge read 18 percent fuel, rather than nearer the 12 percent level as anticipated by the flight manual. McLennan had previously discussed the operation of the warning light on this helicopter with CHL engineering staff, which prompted CHL to test the fuel system in June 1995. The tests established that the fuel gauge was accurately reading 18 percent when the low fuel warning light illuminated. McLennan testified that he had confidence in both the CHL staff member who performed the tests and the test results. McLennan also testified that he had no indications that the fuel gauge on the helicopter had been sticking at any time prior to the day of the accident.10Using the 150 liter per hour burn rate, 18 percent fuel would have allowed slightly less than 34 minutes flight time to complete exhaustion, and slightly less than 14 minutes of safe flight. McLennan testified that he made a decision to continue flying until the gauge read about 11 percent. McLennan noted that the gauge read 11 percent, which would have provided about 19 minutes of additional flight, before he began setting up to reposition the extra load at the base camp, and before he began attaching a final load for transport to the Ranger Creek staging area. McLennan continued flying, repositioning the load at base camp and attaching his final load for Ranger Creek. Shortly after McLennan left the base camp for Ranger Creek, he called in to say that he would be shutting down at Ranger Creek to refuel. McLennan flew most of the way to the Ranger Creek staging area, and was descending into the landing area when he noticed the fuel pressure dropping. McLennan testified that he also observed the fuel gauge dropping rapidly, from 11 to 3 or 4 percent. McLennan jettisoned the load, decided upon a landing target, and then attempted an auto-rotational landing. McLennan was unable to successfully navigate the auto-rotational landing and, within seconds of the time that he had noticed the fuel gauge dropping, the helicopter fell the last 30 or 40 feet and crashed into a creek embankment. McLennan suffered severe injuries and the helicopter was destroyed. Post-accident investigation revealed that there were only 11 liters of fuel, all of which was by design unusable, in the fuel tank upon impact.11 Thus, there is no question about the fact that the helicopter crashed because it ran out of fuel.McLennan's theory is that the fuel gauge was stuck at some point (either around the 18 percent level, when the low fuel warning light came on, or at the 11 percent level, where the indicator remained while McLennan repositioned the load at base camp, attached the load for Ranger Creek, and flew almost all the way there),12 and then became dislodged by turbulence.McLennan's assertion that the fuel gauge was sticking brings us to the heart of McLennan's marketing defect theories. McLennan claims that the resistor-type fuel measurement system on the AEC AS-350-B had a tendency to wear when consistently flown in the low fuel states required for slinging, which led to inaccurate fuel gauge readings. McLennan claims that any helicopter equipped with a resistor-type fuel measurement system is unreasonably dangerous and should not be used for slinging operations. McLennan further claims that AEC negligently failed to warn or inadequately warned intended users of the helicopter that a worn or dirty fuel measurement system might generate an inaccurate fuel gauge reading. We begin with an analysis of the fuel measurement system installed on the helicopter when marketed and when crashed.V.The helicopter flown by McLennan was manufactured by AEC's predecessor in interest in 1979.13 Parts of the airframe were manufactured in France and then shipped to Grand Prairie, Texas, where the helicopter was assembled and completed using parts from both inside and outside the United States.14 The helicopter was sold to Placer Development, a Canadian company, in 1980. There is no dispute about the fact that AEC never regained control of the helicopter after that point in time.Significantly, the helicopter sold to Placer Development was designated a model AS-350-D. Seven years later, in 1987, the helicopter was converted from a model AS-350-D to a model AS-350-B. AEC was not notified of the model change and claims that, up until this lawsuit, it had no notice that the conversion had taken place. Uncontested record evidence establishes that there are material differences between the two models. The most significant differences for the purpose of this lawsuit center upon the fuel measurement system. The model sold to Placer Development, AEC model AS-350-D, was equipped with a 540 liter tank with only 1.25 liters of unusable fuel. The model which crashed fifteen years later, AEC model AS-350-B, was equipped with a 530 liter fuel tank, with 11 liters of unusable fuel. The conversion also required that the "power quadrant for the fuel float control level" be modified.15 In addition, the converted model AS-350-B required different flight documentation and manuals than the AS-350-D sold to Placer Development. Although CHL obtained a model AS-350-B flight manual from somewhere, because it was with McLennan on the day of the crash, AEC has no records that it ever provided CHL with a flight manual for the converted aircraft.The fuel gauge and the low fuel warning light in the AS-350-B helicopter were triggered by the Jaeger fuel transmitter installed on the aircraft when it crashed. AEC did not furnish the transmitter. AEC concedes, however, that it furnished a similar transmitter when it sold the helicopter in 1980.16 The transmitter is a mechanical device that operates by means of a float mechanism in the fuel tank. The float mechanism slides up and down in a tube with the help of an attached guide pin that rides in a slot on the mechanism. This type of transmitter is referred to in the record as a resistor-type system. The record establishes that resistor-type fuel transmitters may wear in a fashion that causes there to be friction in the slot, which in turn can cause some inaccuracy in the quantity of fuel indicated by the low fuel warning light and the fuel gauge. The problem typically occurs when the aircraft is routinely flown at either very high or very low fuel levels. As mentioned above, slinging operations require that pilots fly at very low fuel levels, so as to keep the weight of the helicopter, pilot, fuel, and load below the maximum weight limits imposed by the helicopter's design.VI.As of 1995, when McLennan crashed, the potential for inaccurate fuel gauge readings when worn resistor-type fuel transmitters were used for slinging operations was well known. The CTSB Aviation Occurrence Report concluded, on a matter within its realm of expertise, that it is "common knowledge among flight crews that resistor-type quantity indicator systems cannot be relied upon to indicate the exact amount of fuel in the tank when flying extensively in a low-fuel flying application." AEC was aware of this fact. In the late 1980s and early 1990s, the company issued several documents warning that certain reliability problems might develop when worn fuel transmitters were used in slinging operations. In March 1988, seven years before McLennan's crash, AEC issued Service Letter 867-28-88 relating to the resistor-type fuel gauge.17 The service letter reads, in relevant part:The "ECUREUIL" helicopters are equipped in their basic version with a JAEGER or KUBLER resistive type fuel gauge.This system provides the pilots with an accurate reading of fuel remaining in the fuel tank. However, in spite of its good reliability it is not a defect free measurement system.The reason for this Service Letter is to stress the fact that the pilot remains the only person accountable for its good operation and that he, in accordance with flying rules, must keep an eye on fuel indication to make sure [the] reading is consistent and to detect any possible failure.Concerning flights with low fuel level and in critical zones, Height/Velocities (Sling configuration for example) checking the fuel gauge is a primary condition to flight safety.The district court read this letter, and then adopted McLennan's reading of the same, finding that the service letter misled pilots by informing them that the fuel gauge was accurate, and suggesting that the letter actually increased the risk to pilots by encouraging them "to rely on the fuel gauge as a 'primary condition to flight safety.'"With all due deference to the district court's fact finding, we conclude that McLennan's construction of this letter, which appears in the district court's order, is clearly erroneous. While the service letter opens with the premise that the fuel gauge is generally reliable, the letter goes on to state that the system is not defect free. The letter then states that the purpose of the communication is to inform pilots that they must, in accordance with good airmanship rules, keep a watch on the fuel gauge to be sure that the reading is consistent with the pilot's own estimation of available fuel. The letter concludes by warning that "checking" the fuel gauge in this manner is of critical importance, and "a primary condition to flight safety" for those pilots engaged in slinging operations. When taken in context, the admonition to "check" the fuel gauge clearly refers to a pilot's duty to verify its accuracy, rather than any invitation to "rely" upon the fuel gauge as found by the district court.In May 1992, AEC issued Service Bulletin 28-12. This service bulletin announced that an electronic or capacitor-type fuel measurement system would be installed on future models of the AS-350 helicopter and suggested that the capacitor-type be used to replace the resistor-type on helicopters consistently flown in a low fuel state. The service bulletin further provided the part numbers and procedures for implementing such a replacement.In December 1992, several months after Service Bulletin 28-12 was issued, and with notice that AEC was offering a capacitor-type system for increased reliability, CHL purchased another resistor-type fuel gauge for installation in the helicopter McLennan was piloting on the day of the accident.In December 1993, AEC issued Service Letter 1190-28-93 relating to the "fuel gauge transmitters." That service letter reads, in relevant part:We have received a number of reports from operators of incorrect operation of the fuel gauging system. We feel, therefore, that [it] is advisable to remind flight crews that they must comply with the aircraft handling rules which cover fuel management.The piloting rules should lead the pilot to check the remaining flight time himself, taking into account factors such as the weight of fuel loaded and the duration of the current flight.If there is a doubt, the pilot's analysis takes precedence over the indications read on the instruments.(emphasis in original). The district court, once again adopting McLennan's proposed findings verbatim, concluded that this letter constituted an independent marketing defect because it failed to provide pilots with any other means of gauging the amount of fuel on board.This finding is also clearly erroneous. The December 1993 service letter quite clearly directs the pilot to determine remaining flight time by keeping track of the amount of fuel loaded and the duration of the flight. This is no novel or unduly burdensome expectation to place on pilots. Virtually ever pilot that testified, including McLennan's own expert, stated that it is patently unreasonable to run a helicopter out of fuel. Similarly, the evidence conclusively establishes that basic airmanship rules require that a pilot have some estimate of remaining flight time based upon the quantity of fuel loaded and the duration of the current flight. See In re Air Crash at Dallas/Fort Worth Airport, 919 F.2d 1079, 1084 (5th Cir. 1991) (explaining that the "the pilot in command of an aircraft is directly responsible for, and is the final authority as to, the operation of the aircraft"). McLennan's own statement to the CTSB acknowledges that he was trained to utilize this method, which is commonly referred to as "flying by the watch." The only evidence that even potentially excused McLennan from his duty to monitor his fuel on that day came from McLennan's expert pilot Gardiner. Gardiner testified that flying by the watch is more difficult with slinging because of the variable burn rate for those operations. Gardiner further stated that relying on an accurate fuel gauge is the only certain way to determine fuel quantity while in the air. Gardiner did not, however, contradict the testimony of the pilot witnesses that the pilot should always have an independent working estimate of remaining flight time based upon the amount of fuel loaded and the duration of the flight.18 While McLennan tried to mimic Gardiner's testimony at trial, his earlier statements about the accident, together with the balance of the record, make abundantly clear that McLennan was well aware of his independent duty to keep track of his fuel. As the CTSB found, McLennan could have made "an in-flight check of fuel gauge indications against fuel consumption and flight time," which "may have alerted" McLennan to the fuel gauge discrepancy. We conclude that AEC's October 1993 service letter did set forth an alternative and effective procedure for monitoring the fuel on board. That method, flying by the watch, is a well-recognized rule of basic airmanship, and the district court's determination that the letter was inadequate for failure to set forth an alternative and adequate procedure for checking the fuel is clearly erroneous.Similarly, the district court's finding that "[t]here is no practical way to determine the amount of fuel being burned during slinging operations other than relying on the fuel gauge" is implausible in light of this record. This premise finds its genesis in McLennan's trial argument that the only way to know for sure how much fuel is on board the aircraft is to either drain the tank completely and then add a measured amount, or to fill the tank completely and then drain off a measured amount. Given that performing such a procedure at every refueling is impractical, McLennan argues, it follows that a pilot has no way to keep track of how much fuel remains on board, aside from trusting absolutely in the accuracy of the fuel gauge. Given that the fuel gauge is so critical in slinging operations, McLennan argues, AEC should have required that the fuel measurement system be more frequently inspected.This position has no merit. As an initial matter, the fuel gauge does not provide the only means of determining the amount of fuel on board, or more importantly, the remaining flight time. The quantity of fuel on board can be visually checked on the fuel tank itself. McLennan himself employed this procedure before leaving Canmore hanger. Moreover, without regard to how low the fuel tank level is when refueling begins, the pilot is able to measure, within fairly close limits, the amount of fuel added to the tank when refueling. By then applying the principles involved in flying by the watch, the pilot can easily make a conservative estimate of the remaining flying time.McLennan's argument that AEC negligently failed to require more frequent inspections is likewise without merit. The record conclusively establishes that industry-wide standards consistently classify helicopter fuel gauges as "on condition" items. This means that they are replaced as needed rather than on a regular schedule. On condition items are generally not considered critical to flight safety. In the case of the fuel gauge, this is because of the pilot's overriding duty to monitor his or her own fuel, which is considered sufficient to prevent an absolute failure of the aircraft. McLennan himself provides the best statement of the commonly understood rule that the pilot's own calculations, rather than the fuel gauge, provide the most accurate measurement of available fuel. As McLennan told the CTSB:I remember my instructor pointing to the fuel gauge and saying "What does that tell you?" And I said, well it tells me how much fuel is in the tank, and he said "No it doesn't, that tells you whether or not there is a fuel gauge installed on the aircraft. If you want to know how much fuel you got you get up on the racks and you open the lid and you look inside."For the foregoing reasons, we conclude that the district court's finding that slinging pilots must rely solely upon the fuel gauge for an accurate indication of available fuel is clearly erroneous.In May 1994, AEC reissued Service Bulletin 28-12, formally classifying it as a "Recommended Service Bulletin." AEC had previously clarified to users that the regulations governing the production of the aircraft precluded the issuance of a "Mandatory Service Bulletin" requiring replacement of a component or other action unless the action required in the Service Bulletin was the subject of a formal airworthiness directive from the regulating authorities. "Recommended Service Bulletins," on the other hand, could be issued by the manufacturer. Notwithstanding the rather permissive tone of the phrase "Recommended Service Bulletin," AEC clarified that such bulletins would address those issues that, although they were not the subject of a formal airworthiness directive, were considered "indispensable to prevent failures of all types with unacceptable consequences." AEC further stressed the seriousness of such bulletins, stating that "[s]hould operators not take into account the directives contained in Recommended Service Bulletins they must accept full responsibility for the consequences of their decision." The May 1994 version of Service Bulletin 28-12 specifies that the resistor-type fuel measurement system should be replaced with the capacitor-type in order to "increase [the] reliability of FUEL QUANTITY measurement and to render the LOW LEVEL warning independent of this measurement." The Service Bulletin noted that the modification was of particular importance to "all operators required to work with low fuel levels (sling operators for example)."With regard to the May 1992 Service Bulletin and the May 1994 Service Bulletin, the district court noted that AEC had offered a capacitor-type fuel transmitter "as an option" in the mid 1990s. While the district court did not address CHL's decision to ignore the May 1992 Service Bulletin by installing a used resistor-type fuel transmitter into the helicopter in December 1992., the district court did find that use of the capacitor-type fuel transmitter recommended by AEC would have "prevented or significantly reduced" McLennan's injuries.In July 1994, AEC issued Service Letter 1215-28-94. This service letter reminded pilots of the "fuel gauging system functional checking procedures given in the Flight Manual" and stated that "these directives must be followed each time the aircraft is refueled." The procedure described in the letter essentially requires that the pilot check the function and accuracy of the fuel gauge by: (1) determining whether the amount of visible fuel in the fuel tank corresponds to the reading on the fuel gauge; (2) ascertaining the amount of fuel delivered by referring to the bowser, the fuel pump used to dispense the fuel; and (3) ensuring that the amount of fuel added, as measured by the bowser, is correctly reflected on the fuel gauge. The district court read this service letter and concluded that the procedure outlined, checking to be sure that the fuel gauge accurately registered the fuel added when refueling, was inadequate standing alone to prevent or diagnose sticky fuel transmitter operation at low fuel states. The district court's observation in this regard is certainly true. Simply being aware of the available fuel would not prevent an excessively worn fuel transmitter from registering an inaccuracy at low fuel levels. But the observation does not tend to advance McLennan's case in any significant way. First of all, the refueling procedure described in the July 1994 service letter does not, as the district court suggested, stand alone. Rather that procedure is merely a summary of procedures laid out in the flight documentation. Moreover, the refueling procedure must be understood in light of a pilot's duty to keep track of the fuel loaded on board and flight duration. When viewed in the appropriate context, the July 1994 service letter is neither misleading nor inadequate with respect to the subject addressed, an alternative pre-flight method for checking the accuracy of the fuel gauge.VII.CHL and McLennan were also well aware of the potential that a worn or dirty resistor-type fuel transmitter might cause fluctuation or sticking in the fuel gauge measurement as well as the fact that even minimal fluctuations would create an environment of heightened risk for a pilot engaged in slinging operations. More specifically, both CHL and McLennan were aware that the particular helicopter flown by McLennan on the day of the crash had recently demonstrated anomalous fuel indications. Notwithstanding this knowledge and the suggested need for repairs to the fuel measurement system, CHL made no repairs and McLennan took no precautions to ensure that he had an independent knowledge of the available fuel on that day.There is no doubt about the fact that CHL received and understood the substance of AEC's various service letters and bulletins explaining the risk and setting forth alternative methods for ensuring sufficient fuel in slinging applications. Likewise, there is no doubt that CHL passed that information on to McLennan. In the AS-350-B training manual provided to McLennan, which was with McLennan in the helicopter on the day he crashed, the fuel system, components, and function of the fuel measurement system is illustrated and described in detail. Typed in a distinctive text in the upper left hand corner of the page illustrating the system is the following warning instruction:Quantity and low fuel indications in the AStar are accomplished by a float type sensor. However, the pilot must watch his fuel very closely and get in the habit of checking his watch to monitor fuel because the float can (and has) stick in the tank. If this happens a false full indication will result and there will be no low fuel light.CHL pilot Kendall testified that he specifically instructed McLennan on the potential that a worn fuel transmitter might stick and give an inaccurate gauge reading on the AS-350-B helicopter when routinely flown at low fuel states. This training occurred only one year before McLennan crashed. McLennan signed training documentation acknowledging training in these areas. At trial, McLennan testified that he did not specifically recall Kendall's instructions, but he deferred to the training records and did not deny that they were given.McLennan proposed and the district court adopted a finding that "pilots generally do not know that fuel gauges are not accurate or unreliable." In addition to the evidence already described, the record reflects that McLennan discussed discrepancies in the operation of the fuel gauge and low fuel warning light in this helicopter with CHL's engineering department as recently as a few months before crash. McLennan informed the engineering department that the low fuel warning light was illuminating when the gauge read 18 percent fuel, rather than closer to 12 percent fuel as contemplated by the flight manual. McLennan was included in discussions in which CHL considered replacing the fuel transmitter. McLennan stated that CHL decided not to order a replacement transmitter because CHL's experience with the supplier they used for the part had been bad, with a very large percentage of the transmitters provided giving false fuel indications when attached to calibration instruments before installation in an aircraft. In June 1995, four months before the October 1995 crash, CHL performed tests checking the accuracy of the fuel gauge. At that time, CHL determined that the 18 percent fuel reading on the fuel gauge was an accurate measure of the available fuel when the low fuel warning light illuminated. Thus, although the warning light was coming on sooner than expected, the gauge was giving an accurate reading of available fuel, and CHL decided not to replace an accurate gauge. McLennan personally checked the testing logs and testified that he had confidence in the conclusion that the fuel gauge was accurate at that time. Finally, we note that the CTSB Aviation Occurrence Report expressly provides that "it is common knowledge among flight crews that resistor-type fuel quantity indicating systems cannot be relied upon to indicate the exact amount of fuel in the tank, especially at low fuel levels." In contrast, there is no record evidence that would support the district court's fact finding that pilots are without technical knowledge concerning the potential for inaccuracy in the fuel measurement system or that they necessarily rely exclusively upon the presumed accuracy of the fuel gauge, and we reject that finding as clearly erroneous. Both CHL and McLennan were actually aware, both of the technical function of the fuel measurement system, and of the potential for inaccurate fuel indications when a worn resistor-type fuel transmitter is routinely flown at low fuel levels.Having established that McLennan knew that resistor-type fuel transmitters, and the transmitter installed on this helicopter in particular, might require the pilot to keep a closer tab on fuel consumption, we return to an evaluation of McLennan's causation argument that the gauge was sticking and an evaluation of the fuel gauge operation on the day of the accident.VIII.McLennan's expert estimated that McLennan may have flown as long as 33 minutes after the warning light came on. Consequently, when McLennan ran out of fuel he was within seconds of the slightly less than 34 minute flight time to exhaustion predicted by the 150 liter per hour fuel burn rate. Similarly, McLennan would have had slightly less than 19 minutes flight time to fuel exhaustion when he first noticed that the gauge read 11 percent, which was before he repositioned the load at base camp and before he attached the final load for Ranger Creek.19 McLennan would have spent several minutes attaching, moving, and detaching the final load to be repositioned at base camp. McLennan testified that this load required flying close to the buildings, and thus, additional flight time. It would then have taken several minutes to attach the final load for transport to Ranger Creek, and about 6 or 7 minutes flight time to reach the point where McLennan began setting up for a landing at Ranger Creek and crashed. By McLennan's own estimates, he would have used almost all of the available flight time, even if the gauge accurately measured 11 percent.There is no need, however, to focus in this case upon what might have happened at 18 or 11 percent fuel. There is no dispute about the fact that McLennan left Canmore hanger with 35 percent fuel. Using McLennan's estimated fuel burn rate of 150 liters per hour, which is more conservative than the burn rate CHL teaches its pilots to use, and more conservative than the burn rate that the CTSB used to assess the accident, McLennan should have been able to fly about 70 minutes on that fuel. There is no dispute about the fact that McLennan flew for about 75 minutes (from the time he left Canmore hanger with 35 percent fuel) before running completely out of fuel. Similarly, there is no dispute about the fact that McLennan began slinging from the Haig Glacier base camp with 30 percent fuel. Using the 150 liter per hour fuel burn rate, McLennan should have been able to fly just slightly more than 59 minutes on that fuel. There is no dispute about the fact that, once McLennan began slinging, he flew at least 60 minutes on that fuel before he completely exhausted the fuel and crashed. Given these facts, it is obvious that, if the gauge stuck at all, the resulting inaccuracies must have been minimal. Indeed, McLennan appears to have run out of fuel almost exactly when predicted.Our conclusion in this regard is supported by post-accident testing on the actual fuel measurement system retrieved from the crashed helicopter. When the system was tested in a level and inclined position, the investigators were able to obtain a maximum 3.5 percent inaccuracy in the crashed fuel measurement system.20 This record amply establishes that a commercial helicopter pilot, even one involved in slinging operations, should not be depending upon such a narrow margin of error to keep him in the sky. This is particularly so where the pilot is performing only the routine work-day tasks that make up most of his days. This is the obvious purpose of the various regulations, company rules, and flight manual comments concerning fuel management when slinging. The CTSB agreed, finding in its final report on the incident, under the heading "Causes and Contributing Factors," that:The engine flamed out because of fuel exhaustion. Contributing to the occurrence were the pilot's decision to rely on the fuel quantity indication at a low fuel state, and to continue to operate the helicopter with the low-level warning light illuminated.IX.McLennan maintains that, notwithstanding any evidence of his actual subjective appreciation of the risk of relying exclusively upon the fuel gauge, the severity and pervasiveness of the problems associated with resistor-type fuel transmitters in helicopters used for slinging operations renders the use of those transmitters unreasonably dangerous. McLennan relies primarily upon a large number of maintenance reports that AEC produced in discovery. These maintenance reports track all reported malfunctions of fuel transmitters installed on the fleet of 550 AEC 350 series helicopters being flown in the 15-year period between 1980 and 1995 that McLennan's helicopter was in service. There are about 200 such reports in the record, although only 138 of those reports are operational reports relating to a malfunction while a helicopter was engaged in flight operations.21 Thus, the accumulated reports reflect less than one operational fuel transmitter malfunction for every 20,000 flight hours. The district court found that in "virtually every case, the fuel quantity indicator system indicated a higher quantity of fuel than actually remained in the aircraft." Having reviewed the record, we conclude that this is an incorrect statement of the evidence. There are a number of different problems reported in the documents that have nothing to do with erroneous gauge readings caused by sticking. In fact, only about half of the reports are tied to sticking of any form in the float assembly, and less than 20 percent of those are tied expressly to an artificially high fuel indication. McLennan did not offer any evidence and the reports do not otherwise suggest that any of these malfunctions resulted in a crash or other accident involving the affected aircraft. We conclude that these reports standing alone do not support a reasonable inference that resistor-type fuel transmitters are inherently dangerous when installed in helicopters used for slinging operations.McLennan also offers marginally probative evidence that AEC could have installed a capacitor-type transmitter, and that a capacitor-type transmitter may be more reliable for slinging operations. But this is not a design defect case, and McLennan's evidence does not support a reasonable inference that the decision to market the model AS-350 helicopter with a resistor-type transmitter rendered the helicopter unreasonably dangerous in 1980, or even with the benefit of hindsight. An FAA designated engineering representative, Leon Jacobson, testified that resistor-type fuel transmitters are still widely used in helicopters marketed for slinging operations. Jacobson provided evidence that at least nine helicopter manufacturers continue to market twenty-five different families of helicopters equipped for slinging operations with resistor-type fuel transmitters. Jacobson further testified that he had never seen a fuel indicator system classified as anything other than a "on-condition" part, meaning that neither the FAA nor the aviation industry considered the fuel indicator system to be a safety item that would cause a structural failure or crash if it failed. Consistently, Jacobson testified that he had never, in his 42 years experience designing and approving aircraft, seen a mandatory service bulletin requiring replacement or frequent inspection of a fuel indicator system. In sum, the record evidence does not support a reasonable inference that the AS-350-D model aircraft marketed by AEC with a resistor-type fuel transmitter was unreasonably dangerous for slinging operations when sold in 1980 or at any other subsequent time. To the extent that the district court finds differently, that finding is clearly erroneous on the basis of this record.Having set forth the record evidence and the factual basis for our decision, we proceed to an analysis of the legal issues AEC raises on appeal.LEGAL ANALYSISI.AEC challenges the district court's denial of its motion to dismiss for forum non conveniens and its motion to apply the law of Alberta, Canada. AEC raises these points as alternative arguments, which the Court need not address unless a decision adverse to AEC's interests is reached on the merits. Notwithstanding AEC's position, the district court's rulings on these pre-trial motions potentially affect our analysis of the merits. For that reason, we will briefly consider the district court's disposition of AEC's pre-trial motions before considering the district court's disposition on the merits of McLennan's strict liability and negligence claims.The simple premise underlying the doctrine of forum non conveniens is "that a court may resist imposition upon its jurisdiction even when jurisdiction is authorized." Dickson Marine Inc. v. Panalpina, Inc., 179 F.3d 331, 341 (5th Cir. 1999) (internal quotations omitted). We review the district court's denial of a motion to dismiss for forum non conveniens for a clear abuse of discretion. See In re Air Crash Disaster New Orleans, 821 F.2d 1147, 1166 (5th Cir. 1987), vacated on other grounds and remanded, 109 S. Ct. 1928, reinstated in relevant part, 883 F.2d 17 (5th Cir. 1989). When, as here, the district court tries the case to a conclusion, that fact tends to bolster the district court's original decision denying the motion to dismiss. Id. at 1168. In such a case, the district court's decision should not be held an abuse of discretion unless the moving party can demonstrate great prejudice arising from trial in the plaintiff's chosen forum. Id. "The doctrine of forum non conveniens presupposes at least two forums where the defendant is amendable to process and simply furnishes criteria for choice between them." Dickson Marine, 179 F.3d at 341. Thus, a defendant seeking dismissal on the basis of forum non conveniens must first establish that there is an alternate forum that is both available and adequate. See, e.g., Alpine View Co., Ltd. v. 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