Editorial Note: From Balloons to Drones is pleased to announce our new podcast series. Led by our Editor Dr Mike Hankins, the series builds on the success of From Balloons to Drones, and provides an outlet for the presentation and evaluation of air power scholarship, the exploration of historical topics and ideas, and provides a way to reach out to both new scholars and the general public. You can find our Soundcloud channel here.
In this episode, we interview Dr Peter Westwick, Director of the Huntington-USC Aerospace History Project, about his new book Stealth: The Secret Contest to Invent Invisible Aircraft. We talk about the design process of stealth planes like the F-117 and B-2 at Lockheed and Northrop and answer the tough questions, like why did stealth research seem to be focused on California? What role did Russian research play in stealth development? And of course, how is Disney connected to all this?
Dr Peter Westwick is a research professor of history at the University of Southern California and Director of the Aerospace History Project at the Huntington-USC Institute on California and the West. He is the author or editor of several books, including Into the Black: JPL and the American SpaceProgram, 1976-2004, which won book prizes from the American Institute of Aeronautics and Astronautics and the American Astronautical Society.
Header Image: The Lockheed F-117 Nighthawk stealth fighter flying over Nellis Air Force Base in 2002. (Source: US Air Force)
The 30th of May 1999 is an important date in the history of the Royal Danish Air Force (RDAF). On this day, Danish General Dynamics F-16s dropped bombs against a hostile target for the first time in its history. The target was in Serbia; a country located more than 1,500 kilometres from Denmark, and with which Denmark was not legally at war. Instead, what the RDAF participated in was a ‘humanitarian intervention’ that was supposed to stop a potential Serbian genocide in the province of Kosovo.
RDAF participation in the intervention against Serbia in 1999 was the end of a period fundamental transformations of the Air Force after the end of the Cold War. In this period, almost every aspect of the RDAF began to change – its doctrine, technology, and central mission. This article explores those changes by looking at the role of the RDAF during the post-Cold War conflicts in Yugoslavia between 1992-1995 and Serbia in 1999.
In 1989, the RDAF was small but versatile. It consisted of more than 100 aircraft, a force of ground-based air defence centred around eight mobile missile batteries (I-HAWKs), seven large airbases, and a well-developed command-and-control-system that maintained a constant aerial picture of Denmark and the surrounding area. Its peacetime force was approximately 8,200 personnel, which could be increased to 17,500 in wartime. The RDAF was well integrated into NATO, and its main task was the defence of the western part of the Baltic Sea in case of an attack from the Warsaw Pact. This was a role the RDAF undertook in conjunction with other NATO partners.
From ‘Peace-dividends’ to the Civil War in Yugoslavia
The fall of the Berlin Wall in November 1989 was one of the most momentous events in the modern history of the Danish defence policy. It prompted a shift away from the low-profile approach that had been the cornerstone of Danish policy since the end of the Second World War. In September 1990 the Danish government deployed the corvette, Olfert Fischer, as part of Operation DESERT SHIELD, the United Nations (UN) sanctioned military operation against Iraq, following the occupation of Kuwait. This deployment illustrated to Danish politicians that there was political capital to be gained from participating in such operations, far from Danish shores. At the same time, the Danish Defence Command, which coordinated and controlled the Danish military, realised that operations far from Denmark were a way to stay relevant and to avoid the hard cuts to the defence budget that some Danish politicians wanted, now that the enemy – the Warsaw Pact – had disappeared.
In 1992, the UN set up a peacekeeping force for the civil war in the former Yugoslavia. The Danish government decided to participate with approximately 940 soldiers – a large contingent by Danish standards. Initial problems with recruiting the needed number of soldiers resulted in a change in Danish military law that now stipulated that members of the Danish military were required to accept participating in missions outside Denmark’s borders. Approximately five per cent of the men and women employed by the Royal Danish Army, the Royal Danish Navy and RDAF chose not to accept this and left the military.
In 1993, the Danish government strengthened the Danish contribution to the UN operation in Yugoslavia by deploying ten main battle tanks. Denmark thus became the first country to deploy such heavy weapons in a UN operation. When Danish politicians voiced concern that the deployment of the Danish tanks would be perceived as a dramatic escalation of UN involvement in the civil war in Yugoslavia, the Danish Armed Forces decided that the tanks should be painted white, giving them the nickname ‘The Snow Leopards.’
Pressure from International Organisations
The RDAF was initially not deployed on the international stage, other than a single Lockheed C-130 Hercules, which in 1992 flew ten trips as part of the emergency assistance provided to the Yugoslav city of Sarajevo. The pressure to change the RDAF contribution came from NATO, which had begun its transformation towards a smaller, but more flexible organisation, capable of faster response times. This process had already begun before the fall of the Berlin Wall, but it gained further momentum in the 1990s.
In 1991, NATO created two new forces: the Immediate Reaction Forces (IRF), capable of deploying within a few days, and the Rapid Reaction Forces (RRF) with a deployment time of a few weeks. Here the Danish government decided that that the RDAF’s Squadron 730 should be Denmark’s contribution to the IRF.
The contribution of Squadron 730 to NATO’s IRF marked a shift in focus for the RDAF. During the Cold War era, NATO-planning envisaged that British and American squadrons would reinforce the RDAF. NATO had planned to reinforce the RDAF with one Royal Air Force squadron of Hawker Harriers and two squadrons of SEPECAT Jaguars. United States Air Force (USAF) reinforcements were to consist of one squadron of McDonnel-Douglas F-15s, three F-16 squadrons, and one squadron of Republic A-10 Thunderbolts.
The 1990s, however, saw the RDAF shift to an expeditionary role whereby it contributed to the safety of others outside of Denmark’s borders. As such, the importance of making Squadron 730 available for NATO’s IRF cannot be overstated. Squadron 730 became the ‘flagship’ unit of the RDAF.
NATO’s involvement in the Civil War in Yugoslavia
In parallel with the above developments, during the first years of the 1990s, NATO became increasingly involved in the civil war in Yugoslavia. A UN ordered No Fly Zone had to be enforced by NATO, and in February 1994, this led to aircraft from the Alliance coming into action for the first time when US aircraft downed four Bosnian-Serbian fighter jets over Bosnia-Herzegovina.
On several occasions, the Danish government considered contributing Danish aircraft to NATO operations over Yugoslavia. Such a move was, however, hampered by Danish politicians, who in 1991 had decided to scrap all of the RDAF’s Saab Draken aircraft. This meant that the Air Force’s ability to perform close air support had been downgraded to the degree that meant that Danish aircraft was unfit to perform their intended tasks over Yugoslavia. Therefore, despite pressure from NATO, the Danish government had to decline NATO’s request to deploy Danish aircraft over Yugoslavia. This was embarrassing for the Danish government and meant an increased focus on the close air support task. This meant procuring new equipment, such as the Low Altitude Navigation Targeting Infrared for Night laser targeting pods (LANTIRN) that would eventually enable the RDAF’s F-16s to use precision-guided munitions (PGM). However, the acquisition and introduction of such equipment was a long process, and the LANTIRNs were not operational until 2001.
In the Line of Fire – Yugoslavia
On 29 April 1994, while the debate over a possible deployment of RDAF F-16s was ongoing, a Danish tank force became involved in combat operations against Serbian forces near Tuzla in Bosnia and Herzegovina. The Danish tanks were ambushed, resulting in a firefight lasting approximately 45 minutes. The episode was the first time since 1943 that troops under the Danish flag had fought in battle. While the Danes did not suffer any losses, the Bosnian Serbs subsequently acknowledged that they had nine killed and 15 wounded. The battle, known under the name Operation Bøllebank (Operation Hooligan Bashing), became just as important to the Danish military as the deployment of the Olfert Fischer four years earlier. It showed that Danish soldiers were ready to put military power behind international engagement and were able to fight.
Bøllebank also showed the soldiers, airmen and sailors in the Danish military that post-Cold War UN-operations were fundamentally different from the peaceful UN-missions that Denmark had participated in before 1989. It became clear to the Danish military that personnel deployed on such a mission could be called on to undertake combat operations. Finally, Bøllebank also illustrated a high degree of political and popular support for the Danish participation in the UN-operations, which subsequently helped to expand the Armed Forces’ maneuvering room in connection with these operations.
RDAF Pressure for Change
During the 1990s the RDAF tried on numerous occasions to convince Danish politicians to deploy Danish planes to the civil war in Yugoslavia. This was driven by a fear that the RDAF’s lack of an international profile would make it difficult to secure funding for new equipment. The various professional heads of the RDAF in this period all wanted to make the entire Air Force deployable, including such elements as the Hawk missile system and radars. Following recommendations from the Danish Defence Command, Danish politicians decided to invest much money in new and more mobile equipment, and the RDAF’s Hercules and Gulfstream transport aircraft were equipped with, among other things, missile warning equipment to enable them to operate in dangerous areas.
The RDAF also devoted resources to developing a Danish doctrine for the operational use of air power. The RDAF was inspired by USAF Colonel John Warden’s theories regarding the strategic use of air power, especially his 5-ring model of the enemy as a system. These ideas were used to set the direction for the development of the RDAF and to provide inspiration for how Danish aircraft could be used in the event of a conflict.
From Operation DELIBERATE FORCE to Operation ALLIED FORCE
Following Operation DELIBERATE FORCE, the NATO air campaign over Bosnia and Herzegovina between 30 August and 20 September 1995, the civil war in Bosnia was stopped with the so-called Dayton Agreement. This peace deal ended a civil war that had cost more than 100,000 lives and driven more than four million people from their homes. Thanks to the deployment of a UN peacekeeping force of 60,000 personnel, Bosnia and Croatia have since been mostly peaceful.
In the shadow of the civil war, however, another conflict lurked. Within the Federal Republic of Yugoslavia, which after 1995 consisted of Serbia and Montenegro, a significant minority of ethnic Albanians constituted much of the population of the southern Serbian province of Kosovo. The conflict between the ethnic Serbs minority and the ethnic-Albanian majority in Kosovo dated back hundreds of years but escalated in 1989 when Yugoslav President Slobodan Milosevic deprived Kosovo of the expanded autonomy enjoyed by the region since 1974.
During the 1990s, the political environment in Kosovo gradually grew worse, and by 1998 large parts of the province were no longer under Serbian control. The Serbian military and police, therefore, initiated a particularly hard-fought effort in Kosovo to restore control of the province – preferably by cleansing the province of ethnic Albanians.
Among other things, because of the experience of the Srebrenica massacre in 1995, the world community could not let the Serbs pursue a campaign of ethnic cleansing in Albania. An American-led attempt to find a peaceful solution was therefore made, and the American diplomat Richard Holbrooke was given the task of trying to negotiate a solution.
Operation DETERMINED FALCON
To put pressure on the Serbian president, on 14 June 1998, NATO gathered a force of approximately 80 fighter jets from 12 countries. In Operation DETERMINED FALCON, these aircraft flew along the Serbian border and illustrated to the Serbian President that NATO was ready to use military power if the Serbs did not halt the ethnic cleansing in Kosovo.
For this operation, Denmark provided three F-16 aircraft (two plus one in reserve) at just two days’ notice. At 17:30 on 15 June 1998, Danish F-16s, together with a C-130 Hercules carrying support personnel and ammunition, flew to the Italian airbase at Villafranca. The next morning two Danish F-16s took part in the operation along the southern Serbian border to Macedonia and Albania. After a successful operation, the Danish aircraft returned to Denmark.
During the summer of 1998, Richard Holbrooke managed to reach an agreement including the withdrawal of some Serbian forces from Kosovo. Whether DETERMINED FALCON played a role in that agreement or not is unclear. However, the agreement did not last, and in September 1998, up to 300,000 Kosovo Albanians were once again on the run in Kosovo. These refugees threatened to destabilise the entire region and create a flow of refugees in Europe, such as those the world had witnessed during the 1997 collapse of Albania. The European authorities were very aware of this, and the European Union put much effort into stopping the Serbian cleansing of the ethnic Albanian population of Kosovo.
Towards Operation ALLIED FORCE
Concurrent with this process, NATO began planning a military operation. On the 8 October 1998, the Danish government made available six F-16s (four operational plus two reserve aircraft) and support personnel, totalling 120 men, for a NATO operation named OPLAN 10601 ALLIED FORCE. This operation was designed to compel the Serbs to return to the negotiating table and ensure that the Serbian forces left Kosovo by the 16 October.
The Danish F-16s and most of the personnel initially came from Squadron 730. At the time, however, the RDAF had only 36 pilots with current operational experience on the F-16 aircraft. This figure included pilots serving at the RDAF headquarters as staff officers. The Danish contribution to ALLIED FORCE required six pilots in Italy, six on standby in Denmark and six for other operations, including those on leave at home in Denmark. The deployment thus required half of the RDAF’s available F-16 pilots. This problem was further exacerbated by the fact that all the deployed pilots had to be certified for the weapons systems that were expected to be used during the operation.
ALLIED FORCE, therefore, put much pressure on the entire fighter structure and operations of the RDAF. This pressure meant that all tasks that did not directly relate to air policing the skies over Denmark or ALLIED FORCE were discontinued. For example, among other things, Squadron 727 suspended the training of new pilots, while most of its pilots were deployed to Italy. In the long run, this would ultimately have an impact on the RDAF’s ability to meet its readiness level.
Thanks to political and military pressure, in February 1999, it proved possible to persuade both representatives of the Kosovar rebel movement Kosovo Liberation Army and the Serbian government to initiate negotiations about the future of Kosovo. These took place at the French president’s summer residence at Chateau de Rambouillet, southwest of Paris. On the 18 March, however, it became clear that the negotiations would not lead to a deal, and with the negotiation options exhausted, NATO Secretary-General Javier Solana had no other options than on the 23 March to initiate Operation Allied Force. At 19:00 the following night, NATO began launching airstrikes against Serbian targets in Kosovo and Serbia.
The Danish Experience
RDAF F-16s participated in ALLIED FORCE from day one; however, the operation came at an unfortunate time. In addition to the aforementioned pilot issue, the RDAF was in the middle of a midlife update of its F-16s, and the number of operational aircraft was significantly reduced. Initially, the RDAF only had 14 F-16s capable of participating in the air campaign. This meant that the aircraft deployed during the air campaign worked up so many flight hours that had they operated in peacetime they would have had to be sent home to Denmark for inspection. To alleviate this issue, the RDAF’s Tactical Command issued exemptions from the rules to keep the aircraft flying.
For most of the air campaign, Danish F-16s operated in the defensive role. This was a necessary part of ALLIED FORCE. The Air Force of Yugoslavia – even though most of its fighter jets were of an older design – posed a potential threat to NATO had they chosen to resist the Alliance’s attack. However, after having lost four jets during the first days, the Air Force of Yugoslavia chose to keep most of its aircraft on the ground. Nevertheless, political demands from NATO-member states meant that approximately 33 per cent of Alliance aircraft were devoted to the air defence role against potential attacks by the Air Force of Yugoslavia.
On these combat air patrols, Danish F-16s operated in pairs. Initially, their patrol zones were located over the Adriatic Sea, where the essential air tankers operated. As NATO became more confident that Serbian forces would not try to counter NATO operations, the patrol zones moved to the area over Albania and Macedonia and later also Hungary. This allowed the American jets, which had until then patrolled these areas, to be transferred to offensive operations.
Since Danish F-16 pilots were not equipped with night-vision-goggles, they were used in daylight operations. During one patrol over Kosovo, a Danish F-16 was fired at by a Serbian ground-to-air missile, which did not, however, successfully hit its intended target.
Danish Offensive Air Power
While Danish F-16s primarily focused on the air defence role, in the final days of the air campaign, the RDAF aircraft became involved in offensive operations against Serbian targets.
The first Danish bombs were dropped on the 30 May. The details of the attack are still classified, but what is known is that the target was a radio mast in northern Kosovo and that the two F-16s each dropped six MK-82 bombs. From an altitude of 11,000 feet, the pilots visually observed the bombs hitting the target area. For the attack, the Danish planes used ‘dumb’ bombs. The primary reason for this was that it was not necessary to use a more expensive laser-guided bomb (LGB) on the target. Secondly, an attack with an LGB would have required ‘buddy’ lasing. This technique involved one aircraft illuminating the target with a laser and guiding the LGB, dropped from a second aircraft, towards the target. As well as the above, there was also uncertainty about which pilot was responsible for the bomb if it caused collateral damage. The RDAF, therefore, chose to use dumb bombs where there was no doubt that the Danish F-16s were fully responsible for weapons released.
According to one of the pilots involved in the 30 May attack, the target area had visible bomb damage before the Danish attack. The Danish bombs hit close to the target, but due to the uncertainty about the target’s condition before the attack, the military value of the attack was uncertain. For the RDAF, however, the attack was a significant event as it was the first time Danish aircraft had dropped bombs on an adversary.
For the RDAF, its participation in ALLIED FORCE was a test of whether the Air Force had achieved the transformation that the leaders of the Air Force had wanted. The RDAF’s goal in the 1990s had been to create an air force capable of participating in an air campaign alongside its NATO-allies as well as executing the same type of missions as the USAF or the RAF. The RDAF’s conclusion following ALLIED FORCE was that this goal had not been met.
While participation in ALLIED FORCE was historic, with Danish aircraft bombing hostile targets for the first time in its history, the air campaign showed that the RDAF had fallen behind technologically when compared with Denmark’s NATO allies and especially the United States. The RDAF therefore, subsequently initiated a process to catch up with these technological deficiencies. Thus, ALLIED FORCE accelerated the RDAF’s transformation into an ‘expeditionary air force’ tailored for international operations.
A critical element of this transformation was a focus on precision-guided munitions to avoid collateral damage. The effect of participation in ALLIED FORCE was the acceleration in the acquisition of new equipment, such as LANTIRN, and ammunition for the Danish F-16s. When the RDAF deployed in support of US forces in Afghanistan following the terrorist attacks on the 11 September 2001, the Air Force’s technology level had been significantly improved.
Conclusion – From Defense of the Baltic to Global Reach
The transformation described in this article meant that the RDAF in 2000, compared with 1989, had been reduced by the following: a 50 per cent reduction in air stations; a 50 per cent reduction in fighter pilots; the number of Hawk squadrons had been reduced by 25 per cent; and the number of fighter aircraft in the RDAF inventory had reduced by 35 per cent. Similarly, the peacetime force had been reduced by 17 per cent to approximately 7,900, while the wartime force had been reduced by 26 per cent to 14,800. These cuts had not only hit the RDAF, but the overall number of personnel in the Danish armed forces had been reduced from 39,000 to 33,200, while the wartime force had fallen from 103,000 to 81,200.
The RDAF had, however, at the same time managed to survive the loss of the Warsaw Pact as its enemy, and had shown Danish politicians that improvements in the RDAF’s capabilities allowed it to participate in international operations far from Denmark. The lack of success in the skies above Kosovo in 1999 was therefore not seen as a failure for the RDAF but as evidence that the Danish politicians needed to spend more money on the Air Force in order to reap the benefits of participating in international operations. This policy eventually showed its merit during the air war over Libya in 2011-2012, where Danish F-16s dropped 923 bombs on Gadhafi’s military forces and showed that they were able to work closely together with the USAF and other allies – a prerequisite today for being on the front line during international missions.
Dr Søren Nørby is a researcher and lecturer at the Royal Danish Defense College in Copenhagen. He earned his PhD from Syddansk Universitet in 2018. He specialises in naval history and is the author of 25 books and more than 50 articles. For more information see www.noerby.net.
Header Image: Based on the experience of the operations over the former Yugoslavia during the 1990s, the RDAF underwent a number of critical transformations. One of these transformations was the introduction of new technologies to improve capabilities, such as the LANTIRN pod for use of on the F-16 that came into service in 2001. (Source: Author)
 This article is based on the author’s book Når Fjenden Forsvinder. Det danske flyvevåbens udvikling 1989 – 1999 (When the enemy disappears. The transformation of the Danish Air Force 1989-1999) (Odense, 2019).
 L. Møller, Det danske Pearl Harbor. Forsvaret på randen af sammenbrud (København, 2008), p. 57; R. Petersen, ’Den bedste ambassadør – civil-militære relationer og demokratisk kontrol i Danmark 1991-2011’ (Phd Thesis, Roskilde Universitet, 2012), p. 207ff; R. Petersen, ’Danske sneleoparder i Bosnien,’ Militært Tidsskrift, 2010; P.V. Jakobsen, Fra ferie til flagskib. Forsvaret og de internationale operationer (København, 2009), p. 9; P.V. Jakobsen, ’The Danish Libya campaign: Out in front in pursuit of pride, praise and position,’ Upubliceret artikel, 2016, p. 195; K.S. Kristensen, Danmark i krig: Demokrati, politik og strategi i den militære aktivisme (København, 2013), p. 38; L. From, ’Da et kampvognsslag ændrede danskernes syn på krig,’ Jyllands-Posten, 3 May 2015; ’Balkan har reddet det danske forsvar,’ FOV Nyhedsbrev 7/2002.
 S. Hartov and J.E. Larsen, Forsvarets fly efter 1945 (Flyvevåbnets Specialskole, 1995), p. 36ff.
 John Warden III, The Air Campaign. Planning for Combat (Washington 1988).
 M.O. Beale, ‘Bombs over Bosnia. The role of airpower in Bosnia-Herzegovina’ (Thesis, USAF School of Advanced Airpower Studies, 1997), pp. 33-4; Christian Anrig, The quest for relevant air power: continental European Responses to the air power challenges of the post-cold war era (Maxwell, AL, 2011), p.. 32, 179; M. Juul and S.W. Nielsen, 12 år på Balkan (København 2004), p. 46; John Olsen (ed.), Air Commanders (Dulles, VA, 2013), p. 356ff; C. Axboe, Vi troede ikke, det kunne ske her – Jugoslaviens sammenbrud 1991-1999 (København, 2018), p. 227-53.
 I. Daalder and M. O’Hanlon, Winning Ugly. NATO’s War to Save Kosovo (Brookings Institution Press, 2001), pp. 32-3; G. Schaub, Learning from the F-16 (København, 2015), p. 19ff.; M. Vilhelmsen, ’Operation Allied Force (AOF): Da Flyvevåbnet med voksent,’ Upubliceret. Vojens, 2010, p.. 2; ’Rapport vedr. dansk flyvevåben deltagelse i Operation Allied Force,’ 12 november 1999, B2-B3; Årlig Redegørelse 1998, pp.. 33-6.
Hammerkasterne: Historien om Eskadrille 727 gennem 50 Ar (Skrydstrup, 2005), p. 162-3; ’Flugten er stoppet – men stadig mangel på F-16 piloter,’ Berlingske Tidende, 7 May 1999; ’Rapport vedr. dansk flyvevåben deltagelse i Operation Allied Force,’ 12 November 1999, p.. B-11 og D-10. TTJ og ’F-16 planlægningsmøde vedr. evt. overgang til anvendelse af F-16 MLU i f.m. Flyvevåbnets deltagelse i Operation Allied Force,’ 8 March 1999.
The advent of stealth technology – making aircraft nearly invisible to radar detection – in the 1970s was one of those rare moments in the history of military aircraft technology that seemed to shape much of the development that followed it. Over 40 years later, most new aircraft designed around the world incorporate stealth characteristics in some way or another. Taking a sweeping look at the advent and early development of stealth aircraft within a broad context is the aim of Stealth: The Secret Contest to Invent Invisible Aircraft by Peter Westwick, director of the University of Southern California’s Aerospace History Project. The book is a fascinating look at two companies, Lockheed, and Northrop, that continually competed for stealth projects – each coming at the technology from very different perspectives and methodologies. With this comparative lens, Westwick explores the ways that culture shaped each company’s differing solutions to similar technological problems.
The most significant limitation for any book about stealth is the lack of unclassified sources, and this book is no exception. While much of the material here will be familiar to stealth aficionados, Westwick has conducted a large number of new interviews that shed new light on some familiar events, and reveal new, fresh stories, many that speak to the unique personal experiences of those involved in stealth development.
Westwick emphasises that Lockheed’s approach to stealth relied extensively on computer modelling, which was a significant shift for the firm at the time. For decades, successful designs from Lockheed, including the A-12 and SR-71 Blackbird, which each incorporated stealth characteristics, had been grounded in Chief Executive Officer, Clarence ‘Kelly’ Johnson’s adage that planes that look beautiful fly beautiful. When Johnson retired, his replacement Ben Rich allowed radar experts to have a more significant say in the design process. Their creation of powerful computer programs that could calculate radar returns from a variety of shapes fueled their design process. Nevertheless, the limitations of the program influenced the team to rely on flat, faceted surfaces – an approach that was quite successful, winning the company that contract for the aircraft that became the F-117 Nighthawk.
Lockheed’s programs made use of Soviet research that, ironically, had been requested for translation by engineers at Northrop. Although Northrop also incorporated this research and made similar computer modelling programs, their engineers combined them with a more intuitive approach. Northrop designers used their extensive knowledge of radar theory in a more hands-on way, often literally through iterative modelling and moulding. One of the more dramatic moments of Westwick’s narrative involves Northrop engineer Fred Oshiro visiting Disneyland and sitting outside the Tea Cup ride playing with a lump of modelling clay – a common practice at Northrop – until he intuitively developed the idea of using complex curves to minimize radar returns. The Tea Party ride had been designed by Lockheed engineer and stealth pioneer Richard Sherrer.
This tale of two engineering houses, each with different cultural approaches to designing stealth, forms the backbone of the story, which traces the development of the Have Blue, F-117, Tacit Blue, and B-2 programs. Along the way, Westwick dispels some prevalent misconceptions that frequently crop up in discussions of stealth. For example, some readers might assume that Northrop’s B-2 design was a ‘flying wing’ conception because the company was founded by Jack Northrop, who was obsessed with flying wings and designed several himself. However, Westwick reveals the company had completely abandoned the idea for decades, and only adopted it after Lockheed had submitted their flying wing bomber concept. Another of the more dramatic moments in the book involves the aging Jack Northrop’s heartwarming response to seeing the B-2 designs, which I will not spoil in this review.
Westwick goes beyond the analysis of these companies and attempts to place the development of stealth in a larger context in terms of culture, strategy, and Cold War geopolitics. This includes implying that the inherent creativity around the ‘[i]magineering’ culture of Disney that pervaded California in the 1960s and 70s was a contributing factor to stealth development. On a broader scale, Westwick goes as far as to say that stealth provided an alternative to nuclear deterrence, in some ways making nuclear weapons obsolete. He argues that stealth delivered what President Ronald Reagan’s fanciful Strategic Defense Initiative could only promise. With the ability to essentially defeat the Soviet Union’s massive investment into radar-based air defence networks, stealth broke the foundation of Cold War deterrence theory, and, according to Westwick, pressed the Soviet Union into an unsustainable increase in defence spending that contributed to the nation’s collapse. These ideas are interesting and worthy of consideration, but Westwick’s presentation of them is far too brief; these ideas are not nearly as fully developed as they could be. That does not take anything away from the book as it is. To really make these larger points hit home would probably require a different type of book with a different focus. However, this type of overarching analysis is welcome and thought-provoking, perhaps pointing to further research directions on how stealth technology contributed to the end of the Cold War in specific ways.
Overall, the book is an excellent addition to any air power or history bookshelf. This book manages to be the best starting point for those new to the topic of stealth while also providing new insights and details for the already initiated. Even more impressive, Westwick delivers these contributions while writing in an engaging and personal style that is great to read and sure to be enjoyed by scholars and still easily accessible for enthusiasts and general readers.
Dr Michael Hankins is the Curator of US Air Force History at the Smithsonian National Air and Space Museum. He is a former Professor of Strategy at the USAF Air Command and Staff College eSchool, and former Instructor of Military History at the U.S. Air Force Academy. He earned his PhD from Kansas State University in 2018 with his dissertation, ‘The Cult of the Lightweight Fighter: Culture and Technology in the U.S. Air Force, 1964-1991.’ He completed his master’s thesis at the University of North Texas in 2013, titled ‘The Phantom Menace: The F-4 in Air-to-Air Combat in the Vietnam War.’ He has a web page here and can be found on Twitter at @hankinstien.
Header Image: The Lockheed F-117 Nighthawk stealth fighter flying over Nellis Air Force Base in 2002. (Source: US Air Force)
Birds and aircraft have a fundamental problem: their range and endurance are limited. To remain aloft requires the expenditure of energy. Eventually, birds must land and rest, and aircraft must refuel. The invention of nuclear power in the 1940s appeared to offer a way to cut this Gordian knot. A nuclear-powered aircraft could, it seemed, provide dramatically improved range and endurance compared to chemically fuelled powered aircraft.
Such ambitions were strengthened as the Cold War between the US and the USSR worsened. The Cold War released immense funding for military purposes while providing an operational rationale: a requirement for very long-range bombers able to strike military-industrial complexes deep in the Soviet heartland. The generous funding now available meant numerous new high technology possibilities could be considered, built, trialled and if successful enter mass production. An obvious candidate to research and investigate seemed nuclear-powered aircraft.
The original ideas about using nuclear power for aircraft propulsion had appeared around 1944. These led to a minor research program, the Nuclear Energy for the Propulsion of Aircraft study, beginning in mid-1946. Undertaken by Fairchild, this examined reactor technologies and engine transfer systems. These studies proved encouraging and so in 1951, with the Cold War deepening, the United States Air Force (USAF) proposed to begin actively developing manned aircraft nuclear propulsion. Contracts were let for three main elements: two X-6 prototype test aircraft, a nuclear propulsion system (reactor and turbojets) and an NB-36H reactor flight-test aircraft.
Convair received the X-6 contract. The aircraft was envisaged as being of comparable size to the company’s B-36 Peacemaker bomber with a length of 50m, a wingspan of 70m and an empty weight of some 100 tonnes. The X-6 was planned to have 12 turbojets; eight conventionally fuelled used for take-off and landing, and four nuclear-powered used during in-flight trials. This was an ambitious but expensive test program and was cancelled by the incoming Eisenhower administration in 1953 on budgetary grounds. However, the other two elements continued.
General Electric was awarded the propulsion contract, progressively developing across 1955-1961 three direct-cycle nuclear power plants under the ground-based Heat Transfer Reactor Experiment (HTRE) test-rig program. The final HTRE-3 propulsion system featured a solid moderator using lightweight hybrided (sic) zirconium instead of water, a horizontal reactor to meet aircraft carriage requirements and produced sufficient heat to power two X-39-5 (modified J-47) turbojets simultaneously. HTRE-3 had several firsts including demonstrating an all-nuclear turbojet start, having a primary shield able to handle radiation levels expected in flight and in being designed for in-flight stresses, air pressures, temperatures, and G loadings.
The third element was to flight test a reactor. In mid-1952, Convair was contracted to modify two B-36 aircraft: one for a ground test, the other for flight test and designated as the NB-36H. The major modifications involved firstly, the crew compartment and avionic cabin being replaced by an 11-tonne nose section lined with lead and rubber to protect against reactor radiation and secondly, the rear internal bomb bay being altered to allow fitment of the 16-tonne reactor. Less apparent were the cockpit glass transparencies being some 30cm thick and nine water-filled shield tanks in the fuselage to absorb any escaping radiation.
In the meantime, the USAF was firming up its requirements. In March 1955, General Operational Requirement (GOR) No. 81 was issued seeking a nuclear-powered weapon system, WS-125A. Aspirations included a range of about 10,000nm, an operating altitude of 60,000-75,000ft and an endurance of perhaps more than a week airborne. WS-125A was to have a cruise speed of at least Mach 0.9, desirably offer supersonic dash in the target area and enter service with operational units in 1963. Realising such high ambitions was to prove problematic.
In July 1955, the NB-36H began flight test with the reactor going critical in flight for the first time in September. The reactor did not power the aircraft, instead of being tested to verify the feasibility of a safe, sustained nuclear reaction on a moving platform. For each NB-36 flight, the one-megawatt reactor was winched up into the bomb bay at a dedicated pit at Convair’s Fort Worth plant and then removed again after landing. When in flight, the aircraft was accompanied by a radiation-monitoring B-50 (a slightly updated B-29) and a C-119 transport aircraft carrying paratroopers able to be dropped to secure any crash site and limit bystander exposure to radiation. In total, the NB-36H made 47 flights, ceasing flying in March 1957.
The results of the nuclear propulsion tests and the NB-36H were mixed. HTRE-3 had proven nuclear-power turbojet feasible and that a flyable propulsion unit could be built albeit technical challenges remained. The major problem was that it was hard to build a nuclear reactor small enough to fit into aircraft, but which produced the operationally significant energy output required. It seemed that using contemporary technology would mean nuclear-powered aircraft were relatively slow. For a time, concepts of ‘nuclear cruise, chemical dash’ were investigated; supplemental aviation fuel would allow supersonic dash in the target area.
Moreover, the NB-36H flight programme highlighted the hazards associated with operating such nuclear-powered aircraft. While well-shielded aircraft would not normally pose radiation dangers to air or ground crew, there were worries that accidents and crashes might release fission products from the reactors, and about the dosage from prolonged human exposure to leakage radioactivity. In this, the test flights mainly served to draw attention to the real difficulties that would arise in working with nuclear fuel in operational service conditions.
WS-125A was accordingly cancelled in early 1957. However, there remained occasional flickers of renewed interest in nuclear-powered aircraft into the early 1960s. The Continuously Airborne Missile Air Launcher (CAMAL) concept called for a nuclear-powered strike aircraft able to stay aloft on airborne alert for 2-5 days. This led into Dromedary, a turboprop design capable of an airborne alert for 70-100 hours and able to stand-off outside hostile territory and launch the 600-1000nm Skybolt ballistic missile. These ideas meant research into aircraft nuclear propulsion continued although in only a fairly desultory fashion. This finally ended in 1961 when the new Kennedy administration reallocated funding.
The US Navy had also occasionally expressed interest in nuclear-powered turboprop flying boats. In April 1955, Operational Requirement CA-01503 sought a nuclear-powered seaplane capable of high subsonic speeds primarily for the attack of ports and warships using conventional and nuclear weapons with the secondary roles of mining and reconnaissance. The USN desired to have a prototype available for its evaluation no later than 1961. By mid-1956 the Navy had decided a solely-USN power plant was unjustifiable and that the Navy’s aircraft would use the USAF’s WS-125A power plant. The cancellation of the WS-125A thus terminated the USN’s plans as well. At one stage, it seemed the UK might sell three mothballed Princess-class flying boats to the USN for nuclear-power trials, but funding oscillated and eventually was not forthcoming.
Further afield, the USSR was also busy. In the late 1950s Tupolev designed but did not build two nuclear-powered bombers: the subsonic Tu-119 and supersonic Tu-120. The Soviet leadership thought the projected payloads and speed were inadequate for the costs involved. Tupolev was though authorised to continue research on nuclear aircraft. Accordingly, a Tu-95 turboprop bomber was modified at a nuclear complex near Semipalatinsk in Kazakhstan to allow flying a nuclear reactor, becoming the Tu-95LAL (Letayushchaya atomnaya laboratorya – flying atomic laboratory). Mirroring the NB-36H trails, some 34 Tu-95LAL flights were undertaken in 1961 with the reactor on board but without providing propulsion. The tests similarly revealed that a nuclear-powered aircraft was impractical with the technology of the time. The gain in performance from not carrying chemical fuel was consumed by the heavy reactor and shields and so Soviet interest in nuclear-powered aircraft declined.
In the end, a better technological solution won out. For both the US and the USSR, the ICBM fitted with lightweight thermonuclear warheads offered a much better answer to the problem of a long-range, highly survivable nuclear strike. The considerable effort and funds expended in investigating nuclear-powered manned aircraft yielded much technical information and engineering expertise but ultimately little else. This was not for lack of interest in the defence aerospace industry. At the time, Kelly Johnson of Lockheed’s Skunk Works fame wrote:
After a half century of striving to make aircraft carry reasonable loads farther and farther, the advent of a [nuclear] power plant that will solve the range problem is of the utmost importance […] this unique characteristic is one to be greeted enthusiastically.
Dr Peter Layton is a Visiting Fellow at the Griffith Asia Institute, Griffith University. His PhD is in grand strategy, and he has taught on this at the US National Defense University. He is the author of the book Grand Strategy.
Header Image: An NB-36H producing contrails in flight. (Source: Wikimedia)
 This post partly draws on the author’s Chapter in Michael Spencer (ed.), Nuclear Engine Air Power (Canberra: Air Power Development Centre, 2019). This book discusses contemporary nuclear-powered propulsion systems for aircraft and missiles.
. Jay Miller, The X-Planes: X-1 to X-31 (Arlington: Aerofax, 1988), pp. 69-73.
. F.C. Linn, Heat Transfer Reactor Experiment No.3: Comprehensive Technical report, General Electric Direct-Air Cycle Aircraft Nuclear Propulsion Program (Cincinnati: General Electric Company, 1962), pp. 15-18.
. Theo Farrell, ‘Waste in weapons acquisition: How the Americans do it all wrong,’ Contemporary Security Policy, 16:2 (1995), p. 194; ‘Thoughts on WS-110A,’ Flight, 10 January 1958, p. 44.
. Comptroller General of the United States, Review of the Manned Aircraft Nuclear Propulsion Program of the Atomic Energy Commission and the Department of Defense, B-146749, 28 February 1963, p. 133
There has been no cooling in the publication of space-related material in the aftermath of the Apollo 11 50th Anniversary. Partially in response to NASA’s returning astronauts to space from American soil this year and partially in response to an undeniable zeitgeist, NASA is enjoying renewed popular support. This provides an excellent opportunity for the publication of further scholarship about the history of the organisation. Academic presses (Florida, Nebraska, and Purdue) have been working hard to expand, and further our understanding of not only crewed exploration of the cosmos, but also the choices made in advance of rockets leaving the launch pad. To that end, Purdue University has recently published John Houbolt: The Unsung Hero of the Apollo Moon Landings by William F. Causey. Causey’s Houbolt examines NASA’s decision-making process through the lens of an individual. This approach places emphasis on the members of NASA–this is their story and not the story of the astronauts riding rockets. That being said, Causey’s book is no less amazing than the stories of the astronauts themselves and by pulling back the curtain, Causey deftly reveals the backstory and offers a fresh look at how NASA ultimately decided the method that would lead to footprints on the moon.
My introduction to the mind of John Houbolt, and I would wager some our readers as well, came in the form of the HBO mini-series From the Earth to the Moon (based in part off the book A Man on the Moon: The Voyages of the Apollo Astronauts by Andrew Chaikin). In the episode ‘Spider,’ Houbolt is shown as the ‘voice in the wilderness’ who bravely stood against senior NASA leaders to preach the gospel of Lunar Orbit Rendezvous (LOR) as the preferred method of sending astronauts to the moon.
Causey’s work demonstrates that the history of LOR is richer than just Houbolt’s contributions and the entire work is as much a history of NASA’s early years and its decision-making process as it is about Houbolt himself. This is a book about how we got to the moon, or rather, about how NASA decided how we would get to the moon. Causey’s work covers the period from roughly 1957 to 1963 and represents a comprehensive and readable history of NASA’s early years, but one that still brings a fresh and nuanced perspective to a familiar story.
This is a vital book as it refocuses attention on the thousands of people who aided our ascension to deep space for the first time. While the written record has generally favoured the importance of the astronauts themselves in numerous books, biographies, and autobiographies, the recent trend in focus on the individuals behind the scenes has improved our understanding of the golden age of NASA and crewed spaceflight. Causey’s biography of Houbolt now sits alongside other recent publications including Sonny Tsiao’s Piercing the Horizon: The Story of Visionary NASA Chief Tom Paine, Richard Jurek’s The Ultimate Engineer: The Remarkable Life of NASA’s Visionary Leader George M. Low and Rick Houston and Milt Heflin’s Go, Flight! The Unsung Heroes of Mission Control, 1965-1992. This is important for several reasons, but perhaps most of all because these books continue to expand our understanding of NASA as an organisation composed of thousands and not as one whose principal employees are those at the end of propellant-fueled rockets.
Causey writes with a deftness and a flair that keeps the narrative moving forward even when the subject matter is the Space Task Group, the Goett Committee, the New Projects Panel or any number of other bureaucratic organisations in the NASA hierarchy. This work never feels like you are reading the history of an organisational board meeting, but adroitly describes how the workers at the various levels of NASA made the important decisions necessary that made the entire Apollo program possible. If you are picking up this work, there stands a good chance you have more than a passing understanding of NASA’s history and organisation, and while you might be familiar with the LOR story, Causey’s telling through the lens of Houbolt is worth a read even if you think you have read it all already and neither the scholar nor the buff will be disappointed. This is an essential and much-needed addition to the history of the Apollo Program. Causey’s John Houbolt: The Unsung Hero of the Apollo Moon Landings is a critical and stimulating look at the individual of John Houbolt, but also at NASA writ large.
Dr Brian Laslie is a US Air Force Historian and currently the Deputy Command Historian at North American Aerospace Defense Command (NORAD) and United States Northern Command (USNORTHCOM). A 2001 graduate of The Citadel and a historian of air power studies, he received his PhD from Kansas State University in 2013. His first book The Air Force Way of War (2015) was selected for the Chief of Staff of the Air Force’s and the Royal Air Force’s Chief of the Air Staff professional reading lists. He is also the author of Architect of Air Power: General Laurence S. Kuter and the Birth of the US Air Force. He lives in Colorado Springs. He can be found online at www.BrianLaslie.com
Header Image: A view of the Apollo 11 lunar module Eagle as it returned from the surface of the moon to dock with the command module Columbia. A smooth mare area is visible on the Moon below and a half-illuminated Earth hangs over the horizon. The lunar module ascent stage was about 4 meters across. (Source: NASA)
Editorial Note: From Balloons to Drones is pleased to announce our new podcast series. Led by Assistant Editor Dr Mike Hankins, the series builds on the success of From Balloons to Drones, and it provides an outlet for the presentation and evaluation of air power scholarship, the exploration of historical topics and ideas, and provides a way to reach out to both new scholars and the general public. You can find our Soundcloud channel here.
In our latest podcast, we interview Dr Tyler Morton to discuss his new book From Kites to Cold War: The Evolution of Manned Airborne Reconnaissance. Not only do we get some incredible stories about aerial surveillance (especially from the WW2-era), but we have a blast talking about our biggest “nerd moments” from the archives, and why that type of work is so powerful and exciting!
Header Image: A U-2C painted in a gray camouflage pattern called the ‘Sabre’ scheme in 1975. The camouflage replaced the usual black finish to ease British concerns about ‘spy planes’ operating from the UK. In Europe, this U-2 tested equipment to locate and suppress enemy surface-to-air missiles. (Source: National Museum of the United States Air Force)
What is air power? How do we study it? How do we use it? Do previous characterisations sufficiently capture the concept? Perhaps. This article contends that prior attempts to put meat on the bone towards a framework to study air power scholarship are insufficient.
Moreover, we must appreciate the richness of our inquiries if we – scholars and professionals, such as political scientists, historians, policymakers, practitioners and users – want to understand better the concept of air power to help answer important questions. These questions may be: how do civilian airline pilots and training schools contribute to a nation’s ‘air power?’ Can peacetime control of airspace access constitute a form of air power? To what extent does air information, such as weather, the electromagnetic environment, knowledge of space weather, constitute a form of air power? Furthermore, more, importantly, how do these questions and related concepts orient to each other. As such, this article argues that air power is the domain-agnostic admixture of personalities, outcomes, organisations, technologies, ideas and events to do or, that do, something in or for, the air.
This definition is unique in that it explicitly and parsimoniously joins together the breadth of military and civilian endeavours. It highlights the ‘stickiness’ of related topics and contends that air power is not an inherently military pursuit, though its application almost always manifests as such. The definition provides more form to the general, varied ideas of military thinkers about essential elements of air power. This article begins the discussion on the topic of how we structure air power studies across various academic fields and cordons a more robust dissection of the topic in future publications. Furthermore, this article details the constituent components of air power to clarify meaning. Then, it uses this perception of air power to explain its evolution throughout history. Finally, briefly, it discusses our current air power disposition to make sense of what component will drive innovation in the coming decades — organisations. So, how have we come to envisage this elusive thing we call air power?
Definition and Components of Air Power
In the Age of Airpower, Martin Van Creveld explored about 250 years of the concept. Among others, he highlighted the work of people with simple, yet elegant definitions of air power, such as that of Brigadier General William ‘Billy’ Mitchell who viewed it as doing ‘something in the air.’ Other writers such as Mark Clodfelter provided more angles: breaking the concept of air power into direct and indirect applications. For Clodfelter, direct air power generally involves kinetic outcomes such as bombing and indirect presumes more non-kinetic capabilities, such as intelligence, surveillance and reconnaissance (ISR).
Meanwhile, organisations such as the US Air Force (USAF) define air power based on its organisational experience and conceptual refinement. The latest iteration of USAF Basic Doctrine defines the concept as ‘the ability to project military power or influence through the control and exploitation of air, space, and cyberspace to achieve strategic, operational, or tactical objectives.’ So, how do we break air power down for study?
While Mitchell’s definition is more parsimonious, adding a little complexity provides the explanatory muscle to how we think about air power and thus how we can consider the concept’s change over time. Foundationally, one should recognise that to do something in the air does not necessarily mean that the activity must originate in or from the air. For instance, a ballistic missile launch originates from the land, traverses through the air and maybe space, and then strikes somewhere on land. This example demonstrates the potential of the agnosticism of the air domain. Furthermore, a more robust definition allows for careful, coordinated forecasting of future air power applications using clear and structured links within and across the subject’s elements. For instance, air power researchers studying C-17 humanitarian assistance capabilities may be linked to those studying procedurally based command and control organisations as well as those studying the political effects of humanitarian assistance to optimise future disaster response towards national priorities.
Conceiving of air power as an admixture of component concepts: each noteworthy, though not equal, in characterising the ability to do something in the air is vital for several reasons. One benefit is to have more structured research programs that allow thinkers to situate their contribution to the subject area. Another is to generalise debates on air power concepts that link military and civilian theory and application. A generalisation can help guard against what seems to be a tendency to overly militarise air power thought, evoking the coercive and persuasive elements of the concept. The benefits are similar to those of academic fields like history or political science though air power studies can best be described as an interdisciplinary subfield or topical field.
Importantly, to be useful, the components must be defined. First, personalities may be individuals or groups that have a profound impact on the development of the notion. For instance, Mitchell vocally and publicly advanced the idea of a separate US military service despite the misgivings of more senior leaders, including President Calvin Coolidge. In part, the general’s 1925 court-martial resulted from agitation for a separate US air service. However, the spectacle thrust air power into America’s national dialogue. He challenged the US Army – then overseeing land-based air forces – stating that their leaders were negligent for not building an air service capable of national defence. Mitchell is credited by many as being the original maverick in pursuing an idea of independent military air power that was largely sidelined at the time. Mitchell’s persona, in part, catalysed the existence of organisations critical to the development of air power.
Mitchell’s calls for an independent air service bring us to the second component — organisations, which are administrative and operational systems that foster ideas, leverage people and exploit technologies towards some outcome. An exemplar is the USAF’s Strategic Air Command (SAC) under Major-General Curtis LeMay’s tutelage. SAC pursued the idea of ‘strategic’ air power, discussed later, towards its outcome of long-range conventional and nuclear bombing. SAC oversaw most of the US nuclear deterrent and development of bomber capabilities for the USAF. The organisation came to personify air power in the US and for much of the world during the Cold War. Albeit an unfair approximation, civilians and military personnel alike were lent the idea of air power’s ability to render an outcome of total enemy devastation embodied by SAC’s long-range bombers and, later, ballistic missiles.
In our context, outcomes are the effects, assessments and results by which military and civilian leaders come to associate air power. For instance, after the Second World War, both military and civilian leaders came to associate air power with the unconditional surrender of the enemy evoked by the use of nuclear weapons. This idea created problems during the Korean and Vietnam Wars, where expectations outpaced the new reality of limited, non-nuclear warfare. Limited warfare lends itself to more technical means — leaving technology to be the more tangible, driving component of air power.
As a component, technology includes all the capabilities, research, design, development and testing that allow practitioners to do things in the air. For instance, a significant component of the US’ advancements in stealth technology originated with the Skunk Works team under Kelly Johnson’s orchestration, among others. The team’s research and design techniques led to advances like the SR-71 Blackbird and the F-117 Nighthawk. These technologies, along with other capabilities-related advances, influenced expectations such as those discussed above: enabling the limited, non-nuclear warfare that became characteristic of vast swaths of America’s recent history. However, while technology is sometimes the easiest to translate as an air power component, though not always easy to grasp, it is ideas that sometimes generate change.
Doctrine, strategy, theories, policies and politics combine to form air power’s conceptual component. These ideas embody how personalities can use other components. Reciprocally, all the other components can help thinkers conceive of new ways to conceptualise air power. To demonstrate, during Operation EL DORADO CANYON, President Reagan and his national security team viewed air power as a punitive instrument of national security policy. Existent technologies in the 1980s allowed Reagan’s response to state-sponsored terrorism with a long-range, airstrike on targets tailored to the perceived offence. Reagan’s team shepherded the technology component in a way that had not yet been explored to its fullest. They updated strategic attack doctrine; tested theories of international relations; set new international policies; and ignited the politics of air-driven limited, military interventions.
Events like Op EL DORADO CANYON also constitutes the last element of air power. Our understanding of past campaigns, battles and historical milestones enables a fuller appreciation of air power and the possibility of modifying its future use. Unfortunately, these so-called understandings can sometimes lead to misapplications of history and, ultimately, to disaster. For instance, the counterinsurgency in Iraq that began almost immediately after the invasion in 2003 required a different application of air power than previously practised, but it would take multiple Secretaries of Defense to enforce this understanding upon the military, as evidenced by the explosion of unmanned technologies among others. The components of air power – personalities, organisations, outcomes, technologies, ideas and events – provide the critical infrastructure for the study of air power. We can use this infrastructure to help us understand various aspects of the topic, like what elements may be more important at various times in history. This understanding can help us orient ourselves in history relative to the seemingly dominant feature of our time so that those who study, and practice air power can best allocate resources, whether academically or practically.
Epochs of Air Power
In this section, this article now considers the prominence of the above elements as determinants of historical periods in air power’s evolution. A short walkthrough of air power’s epochal changes rooted in the above-defined elements illuminates current and the future application of air power. Geoffrey Barraclough, in An Introduction to Contemporary History, provided an idea about ‘spots and jumps’ that define historical periods and transitions. He used the timeframe 1880-1960 to discuss the shift between modern and contemporary history based primarily on economic and geopolitical factors. Using a similar conception of eras punctuated by ‘spots and jumps,’ rooted in the components of air power to characterise the shifts, this section divides the evolution of air power into five timeframes. Importantly, during shifts between the timeframes, changes in predominant component concepts of air power led to changes in our concept of air power.
Before 1783 – The Age of Imagination
Air power before 1783 can be viewed as an ‘Age of Imagination’ or ideas. There were no bounds except those imposed by humanity’s evolving understanding of terrestrial physics. Some of the earliest human records depict mystical flying or lobbing objects through the air as weapons. In their way, our ancestors from around the world gave us our first concept of air power. They conceived of divinity by drawing and storytelling of gods that could defy gravity unassisted, a fruitless pursuit for mere mortals that dates to Greek, Roman and Chinese mythology. While ancient and pre-industrial humans did not themselves defy gravity, humankind created things to help defend themselves, such as arrows and trebuchet missiles. These weapons are essential to the study of air power because the idea of projectiles travelling large distances to destroy an enemy finds its roots here. These weapons emerged over thousands of years, sometimes a crowning achievement of empires such as Persia and the Mongols. Nonetheless, the wild-eyed dreams of fantasy came to a relatively abrupt end in 1783 when the Montgolfiers floated their first balloon. The brothers’ flights began the period of the ‘Origins of Air Power.’
1783 to 1903 – The Origins of Air Power
Between 1783 and 1903, changes in the concept of air power resulted from slow changes in technologies. For instance, a new class of ‘aeronauts’ proliferated workable ballooning technologies that ended up in the hands of Napoleon Bonaparte, though his use is not the first use on the battlefield. He used available technologies when and where he could to enhance reconnaissance and direct artillery strikes. In 1798 Bonaparte used balloons to try to overawe the Egyptians in a campaign to subdue the Middle East and North Africa. After an unsuccessful display, Napoleon ordered the balloon unit’s disbandment. Undoubtedly a balloon would have come in handy in 1815 when Napoleon looked for Grouchy to spot and crush Blucher’s flanking movement at Waterloo. Nearly a half-century later, professionals continued to struggle with the concept of air power: conceiving of it as an unproven, unpredictable and unusable conglomeration of technologies and techniques, such as gas-producing machines for balloons, telegraphs and airborne mapmaking. Such was Thaddeus Lowe’s disposition in bringing air power to fruition during the American Civil War. Thus, it would be until the turn of the twentieth century.
1903 to 1945 – The Douhetian Epoch
From 1903 to 1945, ‘strategic’ air power and its offshoots was the idea that drove changes in the conception of air power as something more than an observational or auxiliary tool for ground forces. The idea of independent air power came to full fruition in August 1945 with the dropping of the atomic bomb over Hiroshima, Japan. To begin, in December 1903 the Wright Brothers brought heavier-than-air flight to reality. Driving the science of aeronautics were ideas like those refined by Giulio Douhet in the early part of the 20th century. Theorists like Douhet opined that wars could be won by striking at city centres from the air to break the will of a people, forcing them to surrender. Douhet’s original Italian publication in 1921 would not get immediately translated into English; however, people like Hugh Trenchard, the first Royal Air Force commander, articulated similar thoughts and organised, trained and equipped his military forces towards those ends. Sir Arthur ‘Bomber’ Harris would make use of Trenchard’s advancements during the Second World War over German cities such as Hamburg, Dresden and Berlin. Though it would take the American military time to adopt the British model of indiscriminate bombing, this idea came to epitomise air power for the period.
Importantly, this was also the timeframe during which commercial air travel in lighter- and heavier-than-air vessels took root. Though the ‘golden’ age of commercial air travel would come later, concepts like air routes, navigating via beacons, airports and other ideas began to solidify. These concepts had both military and civilian applications and technologies that enabled further development of the idea of air assets used over long distances. However, the military would continue to dominate ideas about air power as a ‘strategic’ concept even as these ideas came into contact with a significant theoretical challenge: limited warfare in an age of potentially unlimited destruction from thermonuclear weapons.
1945 to 2001 – The Era of Immaculate Effects
The next era, roughly spanning 1945 to 2001 is the maturation of strategic bombing extremes enabled by high technology. Militarily, the era is marked by the rise of a more immaculate, precise warfare with limited aims to mitigate aircrew losses, fulfil more specific international obligations and for operational efficiency among other goals. There was a change in the concept of air power because of what it was perceived to have achieved during the Second World War and the idea that the same outcome could be realised even in the face of more limited warfare. By the beginning of this timeframe, the USAF sidelined more tactically-minded airmen like Pete Quesada to ensure adoption of strategic bombing as a vehicle to solidify the association with air power. In part because of his prestige as a tactical aviation adherent, the ‘bomber generals’ defanged Quesada and the organisation he led, Tactical Air Command, after WWII. There was no room for anyone but true believers in the strategic attack mindset, but this would change after the experiences of Korea and Vietnam in the 1950s, 60s and 70s. Only later in the period would Quesada’s tactical aviation and more precise attack legacy permeate military circles.
In civilian aviation, technology-fueled huge leaps in air power. National airspace, global navigation capabilities and air-containerised freight were concepts that would hold vast military and civilian applications. It is during this time that military and civilian aircraft started to compete for airspace for things like training, exercises and navigating various corridors. Another critical advance was the widespread implementation of the instrument landing system that allowed commercial aircraft to land in increasing levels of degraded atmospheric conditions. Again, precision enabled by technology characterised this era.
2000 and Beyond – Flexible Niche
The most recent period begins at around the turn of the millennium. This is the epoch as ‘Flexible Niche’ because it involved the use of existing or new technologies for a variety of activities dependent on how organisations are positioned to leverage them. Beginning in the late 1980s, formalisation of the contemporary Air Operations Center (AOC) is an early indicator of the present epoch. This organisation enabled the focused air campaign during Operations INSTANT THUNDER and DESERT STORM that, in part, led to ultimate victory for coalition forces in 1991. It was no longer enough to think of air power as just a capability or bringing about the strategic defeat of an enemy via the limits of destructive power or achieving national objectives with as few civilian casualties as possible. The organisation became the template for how to leverage air power across a wide area and from multiple sources. A contemporary view of air power considers the construct of how and which organisations best leverage technologies, ideas and people towards a given outcome, which may be a military one. There are a variety of concepts that the United States military is exploring, including the Multi-Domain Operations Center and Defense Innovation Unit, in addition to the standup of a Space Force among other initiatives.
Civil aviation is undergoing a similar bout with organisations, especially in the United States, as the Federal Aviation Administration (FAA) grapples with how best to control airspace with the rise of unmanned technologies, especially in congested metropolitan areas. Should the FAA continue to hold all the cards or is the organisation in need of decentralisation of authorities to states and localities? Technologies may forestall the organisational decision, but this era’s solutions seem to be organisationally related rather than technically.
For the new century and beyond, it will not necessarily be which countries and industries have the best technologies or smartest people or best ideas that define the development of air power: it will be the organisations that can best leverage the other components that will determine how we conceive of air power. To summarise, again, air power is the domain-agnostic ability to do something in the air resulting from an admixture of personalities, outcomes, organisations, technologies, ideas and events. These components, at various times, represent reasons why our concept of air power changes over time.
The use of epochs allows us to generally discuss how components of air power drive thinking and successful pursuits of the concept over time, which is why it is useful to develop a unified framework for their study. Moreover, as opposed to the more traditional commentary of air power, linking military and civilian advancements in the same epoch demonstrates that air power is not an inherently military concept. This article serves as an overview of the start of a more robust discussion about the development of air power and a characterisation of what will likely temper that development for the 21st century — organisations. Future topics will involve civilian efforts to deal with drones and swarms, the importance of civil aviation and commercial space efforts in air power development, and the exploration of the idea that organisations will be the defining issue of this era.
Given all of this, air power is the domain-agnostic admixture of personalities, outcomes, organisations, technologies, ideas and events to do or, that do, something in or for, the air. Moreover, these components at various times have influenced significant shifts in our conception of air power over at least five critical epochs. Scholars and professionals must acknowledge the military and civilian dimensions of air power to live up to the concept’s full potential. Hence, to conclude, there is a need for a unified framework for the study of air power to promote the integration of military and civilian issues with the field.
Major Jaylan M. Haley is a career USAF Intelligence Officer. Currently, he is a student at the USAF School of Advanced Air and Space Power Studies at Air University. Over 14 years, he served in a variety of intelligence-related positions from the strategic to the tactical levels. During Operations ENDURING FREEDOM and INHERENT RESOLVE, he served as an Intelligence, Surveillance and Reconnaissance Liaison Officer to multiple US Army Divisions and US Marine Expeditionary Forces in both Afghanistan and Iraq. Most recently he was an Air University Fellow, serving as an Instructor in the Department of International Security at the USAF Air Command and Staff College. He is a PhD Candidate in the Kansas State University Security Studies program with research focused on leverage air power as a tool of national policy.
Header Image: A US Navy Grumman F-14A Tomcat intercepts a Soviet Tupolev Tu-95 ‘Bear D’ reconnaissance-bomber over the Pacific Ocean on 21 November 1984. The F-14 was assigned to fighter squadron VF-51 aboard the USS Carl Vinson and was deployed to the Western Pacific and the Indian Ocean from 18 October 1984 to 24 May 1985. (Source: Wikimedia)
 Domains include air, space, cyberspace (or electromagnetic), land and sea. Domain agnosticism disregards a specific domain towards the application of a specific concept. For instance, intelligence collection is domain agnostic. This means that intelligence collection can come from any of the domains-air, space, cyberspace, land or sea.
 ‘Strategic Implications for the Aerospace Nation’ in Philip Meilinger (ed.), Air War: Essays on Its Theory and Practice (Abingdon: Franck Cass, 2003), pp. 217-30.
 Martin Van Creveld, Martin, The Age of Airpower (New York: PublicAffairs, 2011), p. 71; William Mitchell, Winged Defense: The Development and Possibilities of Modern Air Power (New York: Dover Publications, 1988), p. xii.
 Mark Clodfelter, The Limits of Air Power: The American Bombing of North Vietnam (Lincoln, NE: University of Nebraska Press, 1989), p. 213.
 United States Air Force, Core Doctrine, Volume 1 – Basic Doctrine (Maxwell AFB, LeMay Doctrine Center, 2015).
 Robert Smith, ‘Maneuver at Lightspeed: Electromagnetic Spectrum as a Domain,’Over the Horizon: Multi-Domain Operations & Strategy, 5 November 2018. Importantly, the so-called warfighting domains of air, space, land, navy and now cyber – or perhaps more aptly electromagnetic – all interface with the air domain and provide a medium through which something can happen in the air.
 Douglas Waller, A Question of Loyalty (New York: HarperCollins Publishers, 2004), pp. 21-2.
 Donald Mrozek, Air Power & the Ground War in Vietnam (Virginia, VA: Pergamon-Brassey’s International Defense Publishers, 1989), pp. 14-5.
 Conrad Crane, American Airpower Strategy in Korea: 1950-1953 (Lawrence, KS: University Press of Kansas, 2000), pp. 16-22.
Rebecca Siegel, To Fly Among The Stars: The Hidden Story of the Fight for Women Astronauts. New York, NY: Scholastic Focus, 2020. Bibliography. Hbk. 340 pp.
Academic book reviews, at least those found in the back two-thirds of academic journals, tend to follow a predictable pattern. The good: ‘The author deftly demonstrates…’ Followed by the not so good: ‘What the author misses though is…’ Finally, the wrap up: ‘In the end, this work…’ It is, to a certain degree, the nature of the ‘business’ of academia, the manner in which one professional must praise and critique the work of a peer to the wider audience of colleagues. Removed from this predictable outline of reviews are more personal opinions. One will likely not find the phrase, ‘I enjoyed….’ I have often lamented to friends that nothing will ruin your love of history like the professional study of it. So, it is with great pleasure that every so often a book lands on my desk that is at the same time a well-written history and a thoroughly enjoyable book. Rebecca Siegel’s To Fly Among the Stars: The Hidden Story of the Fight for Women Astronauts is just such a book. For something a bit different here at From Balloons to Drones, I will follow the predictable pattern not so often found on blog posts.
The Good. The author deftly demonstrates that the search (and desire) for women astronauts has been almost entirely overlooked. In this book, written for the upper Middle Grade to Young Adult audience, Siegel weaves the well-known story of the Mercury 7 alongside the contemporaneous story of the virtually unknown ‘Mercury 13’ – the moniker was never official and added much later. This is not to say that the study of these pioneers has been entirely overlooked, and I would encourage our readers to get their hands on the following works: Martha Ackmann’s The Mercury 13: The True Story of Thirteen Women and the Dream of Space Flight and Margaret A. Weitkamp’s Right Stuff, Wrong Sex: America’s First Women in Space Program. Do not allow the fact that this is a book written for a younger audience, dissuade you from its importance and what will surely be great impact. For starters, this is a good book. Even scholars of the field will likely find something new – and dare I say something to enjoy – in these pages. Siegel has not only done her homework, but she provides avenues for a new generation to do theirs: her bibliography, the place where the next generation scholars and scientists will turn, is diverse and exhaustive. Considering, the age group this book is intended for, the bibliography is the equal of scholarship on the subject.
The not so good. What the author misses though is…not much. Weaving the familiar with the lesser-known demonstrates the state of cultural and gender backwardness that was accepted as normal practice in the latter half of the 20th Century. Siegel presents a refreshing take on a familiar space story. Most female pilots struggled to find work and acceptance in the air, but for a select few being a pilot was not enough. While the names Shepard, Grissom, Glenn, Carpenter, Cooper, Slayton, Schirra remain (more or less) recognisable, the names Cobb, Dietrich, Steadman, Sloan, Funk and others are not. Siegel’s timely work coincides not only with the 50th anniversaries of the Apollo flights but with a modern NASA seeking to inspire an American public as it sets its sights once again on deep space travel. It was only 37 years ago that the first American female astronaut launched into space, the first female shuttle pilot 25 years ago, and the first female shuttle commander 21 years ago. In the 60+ year history of crewed American spaceflight, these exploits and successes were built upon lesser-known figures whom Siegel brings to light for a younger audience.
In the end, this work will appeal to a wide audience: across specialties, across interests, across genders and across generations. To steal from another space-themed genre, this work will be the spark that lights the fire in the next generation of space explorers. We are all better for this book having been written.
Dr Brian Laslie is a US Air Force Historian and currently the Deputy Command Historian at North American Aerospace Defense Command (NORAD) and United States Northern Command (USNORTHCOM). A 2001 graduate of The Citadel and a historian of air power studies, he received his PhD from Kansas State University in 2013. His first book The Air Force Way of War (2015) was selected for the Chief of Staff of the Air Force’s and the Royal Air Force’s Chief of the Air Staff professional reading lists. His second book was Architect of Air Power: General Laurence S. Kuter and the Birth of the US Air Force. He lives in Colorado Springs. He can be found on Twitter at @BrianLaslie.
Header Image: Exuberant and thrilled to be at the Kennedy Space Center, seven women who once aspired to fly into space stand outside Launch Pad 39B neat the Space Shuttle Discovery, poised for liftoff on the first flight of 1995. They are members of the First Lady Astronaut Trainees (FLATs, also known as the ‘Mercury 13’), a group of women who trained to become astronauts for Americas first human spaceflight program back in the early 1960s. Although this FLATs effort was never an official NASA program, their commitment helped pave the way for the milestone Eileen Collins set: becoming the first female Shuttle pilot. Visiting the space center as invited guests of STS-63 Pilot Eileen Collins are (from left): Gene Nora Jessen, Wally Funk, Jerrie Cobb, Jerri Truhill, Sarah Rutley, Myrtle Cagle and Bernice Steadman. (Source: Wikimedia)
Hindsight tends to make the contingent seem predestined. This is why reading history is essential for those responsible for planning for the future. When military professionals engage with history to try and understand how decisions, events, and circumstances – many of which lie beyond their control – shaped the present, they better appreciate that future planning is not about prediction; it is about preparing for adaptation. This is the lesson I took from Lieutenant Colonel Dr Tyler Morton’s book From Kites to Cold War, published by the United States Naval Institute Press in 2019.
This may not have been the insight that Morton intended for his readers. The book is the published version of Morton’s 2016 USAF Air University PhD thesis, which aimed to educate airmen on how airborne intelligence, surveillance, and reconnaissance (ISR) evolved rapidly from novelty to necessity. Although Morton claimed that the book ‘is a unique account spanning two millennia of manned airborne reconnaissance history’ (p. 9), the book’s six chapters cover less than 200 years: from the Montgolfier brothers’ hot-air-balloon demonstration in 1783 to the Linebacker air campaign over North Vietnam in 1972. This is not a criticism of Morton; his treatment of those 200 years is detailed and engaging and lives up to the promise of providing a unique insight into the development of a capability that is now a cornerstone of modern military operations. Morton’s 200-year story of airborne reconnaissance is one of vision, innovation, hype, misstep, and adaptation. This is a story whose beginning and early evolution has interesting parallels to what is occurring today with a range of emerging technologies.
Most histories of air power begin at the turn of the 20th century with the development of dirigibles and heavier-than-air flight. Those seeking to establish a longer pedigree for military aviation may refer to the French use of balloons at the Battle of Fleurus in 1794. Morton’s first chapter covering the Montgolfier’s 1783 balloon demonstration through to the end of the Spanish-American War in 1898, therefore, fills a gap in air power’s historical narrative.
As Morton describes it, the 19th century was a period of civilian-led experimentation that enjoyed ambivalent support from militaries in Europe and the United States. Though contemporary militaries saw the potential for balloons to contribute to their armies’ situational awareness, many believed resources were better spent on more established capabilities. Using examples from the French Revolutionary period and the American Civil War, Morton shows how the tension between inventors, scientists, and entrepreneurs who demonstrated, but also oversold, the possibilities of airborne reconnaissance, and military leaders who needed to balance innovation with operational necessities shaped initial development efforts. The opportunity cost of an experimental technology versus tried-and-tested during a time of war hindered the military employment of balloons until the end of the 19th century.
It was during the first 15 years of the 20th century, the focus of chapter two, that the perceived benefits of military air power began to exceed the cost. Practical and operational demonstrations of airships and heavier-than-air machines sparked interest in militaries in Europe and the United States, leading to a growing acceptance of aviation’s future military role. Morton’s analysis of this period draws attention to the increasingly important role of empowered officers who drove progress in airborne reconnaissance. Officers such as then-Lieutenant Benjamin Foulois who envisaged the development of airborne reconnaissance as a system requiring the development of new technology and skill-sets beyond those associated with the aircraft itself, and who were empowered to drive the capability forward. Foulois’ career – on operations, as a member of the critical aeronautical boards before and after the First World War, and as Chief of the Air Corps – provided him with the opportunities within the military establishment to translate his vision into reality. His demonstrations of air-to-ground communications and aerial photography in support of US operations during the Mexican Revolution established the utility of airborne reconnaissance for key US Army leadership. In Foulois’ own words (p. 67), the Mexican operations ‘had proven beyond dispute […] that aviation was no longer experimental or freakish.’
Growing awareness in Europe and the United States of the military utility of airborne reconnaissance opened the door for the capability advocates when war came. It would not take long for the capability to prove its worth. Airborne reconnaissance enabled operational success on both sides of the First World War from the earliest stages of the war. It provided Allied commanders with intelligence on German manoeuvres that enabled the so-called ‘Miracle of the Marne.’ On the Eastern Front, German air reconnaissance of Russian force dispositions played a vital role in the German victory at Tannenberg; according to Field Marshal Hindenburg (p. 85): ‘Without the airplane there is no Tannenberg.’ Morton’s discussion of developments during the war in chapter three provides the reader with an appreciation of how the capability developed as a system comprising the air platform, cameras, communications, and the processing, exploitation, and dissemination (PED) of information. This was a logical progression of the pre-war developments, but, as Morton highlights, it was the character of First World War trench warfare (p. 86) that ‘gave aviation the chance it needed to solidify further its value as a force enhancer.’ The reduced mobility of ground forces created an intelligence gap which air power advocates and innovators ably filled. It was the development under real-world operational conditions that made airborne reconnaissance effective as it ensured the system evolved to meet requirements. This also had the effect of removing any lingering doubt about whether the capability had a place in future force structure. With its future assured, the next challenge was determining the exact form and function of that future capability. As the final three chapters highlight, this was not easy.
In chapter four, Morton covers the interwar period and the Second World War – a 26-year period during which there were significant advances in technology, concepts, and operational experience – in one page more than he covers the five years of the First World War. Surprisingly, this does not reduce the quality of the insights he provides. Morton focuses on two main areas during this period: the relative neglect of airborne reconnaissance into the 1930s as air power’s advocates struggled to define its role; and the wartime expansion of the reconnaissance role from imagery intelligence (IMINT) into signals intelligence (SIGINT). Opportunity cost remerged as a significant factor driving air power development during the interwar period. Ironically, as militaries and air power advocates struggled to clarify the role of air power, the tried-and-tested capability of airborne reconnaissance was neglected as investment flowed into more experimental and conceptual areas such as strategic bombing, a reversal of situation Morton describes in chapter one. However, new technologies and the character of operations during the Second World War created opportunities for innovative airmen and their adaptable organisations to consolidate and expand the role of airborne reconnaissance. The ubiquity of radar and radios increased the opportunities and requirement for collection against new sources; Morton does an excellent job describing the resulting emergence of SIGINT across all theatres. By 1945 the major disciplines of modern airborne reconnaissance were firmly established, but the challenge of prioritisation would continue to shape its development well into the Cold War.
Morton takes a different approach to deal with the Cold War. Rather than dividing the period arbitrarily into different time periods, he opts for a thematic approach. Chapter five explores ‘airborne reconnaissance as a strategic political instrument’. While chapter six, the book’s final chapter, examines airborne reconnaissance in the ‘hot wars’ in Korea, Cuba, and Vietnam. Of note, unlike previous chapters that have examined the developments internationally, the final two chapters focus solely on airborne reconnaissance in the United States. The unstated premise is that whereas previously the ideas and experiences of the other great powers had exerted an influence on the evolution of the capability this ceased to be the case after the end of the Second World War. Whether or not this is true is open for debate, but Morton’s discussion of the period does make a compelling, though implied, case.
In chapter five, Morton describes a period of consistent investment in and development of ‘strategic aerial reconnaissance’. The need to maintain awareness of Soviet capabilities to strike the United States and develop intelligence for targeting of US strategic strikes against the Soviet Union drove these developments. Soviet responses also played a role. As superpower competition grew and the Soviet’s began actively targeting US collection assets, political concerns began to impact the requirement for US reconnaissance capabilities directly. Morton describes how this interplay between collection requirements and political considerations drove improvements to sensor capabilities, giving rise to the Big Safari program, and the survivability of the collection platforms, leading to the A-12 Oxcart/SR-71 Blackbird, and the U-2. These were strategically significant capability improvements that were vital to the success of the US deterrence strategy.
While the United States focused its reconnaissance efforts on strategic requirements, the ability to meet tactical the demands for reconnaissance was neglected. In the book’s final chapter Morton describes how the United States adapted its strategic reconnaissance capabilities, and rapidly developed and implemented new tactical systems to meet the requirements of Korea, the Cuban Missile Crisis, and the Vietnam War. The most interesting aspect of this final chapter is not the technology, but the processes that were developed. In Korea, Colonel Karl Polifka implemented a tactical reconnaissance management system that deconflicted the multitude of requests coming into the 5th Air Force and tracked the status of the product; a process that sounds remarkably similar to today’s collection management process. During Vietnam, the integration of technology and process as part of the Teaball project – a system that enabled highly-classified SIGINT to provide near-real-time intelligence into USAF fighter cockpits over North Vietnam – contributed to an increase in the USAF’s kill ratio from 0.47:1 to 4:1. In the words of General John Vogt, then-Commander of the 7th Air Force (p. 204):
During Linebacker we were shooting down the enemy at a rate of four to one […] Same airplane, same environment, same tactics; largely [the] difference [was] Teaball.
Teaball is an appropriate way for Morton to end his history of airborne reconnaissance. The progress made technologically, organizationally, and procedurally from 1783 to 1972 is impressive; when you shift timescale from 1914 to 1972, that progress is even more spectacular. As Morton reflects when discussing the 1965 introduction of the communication-intelligence-equipped EC-121D Warning Star into the Vietnam conflict (p. 200):
In scarcely fifty years, airmen went from using smoke signals and dropped messages to a fully integrated communications capability delivering near-real-time SIGINT data directly to air and ground warfighters.
This progress was not smooth, nor was it predestined, it was the result of the creativity, vision, and perseverance of inventors, engineers, airmen, and military commanders who were able to adapt emerging capabilities to meet operational and strategic requirements.
From Kites to Cold War is an essential read for anyone involved in the present or future of airborne ISR. Morton’s well-written history of the first 200 years of airborne reconnaissance provides an appreciation of how the capability evolved into its modern form, particularly how the vision and adaptability of airborne reconnaissance advocates were crucial to progress. For the same reason, this book is also a useful read for those in the innovation game or involved in future force design. Although Morton’s aim was not to write a book on military innovation, this is essentially what it is. It is an instructive tale of vision, hype, experimentation, and adaptation that provides useful points of discussion and debate for those charged with integrating experimental technologies and ideas into future force structure.
Wing Commander Travis Hallen is a Royal Australian Air Force officer with a background in maritime patrol operations, and a co-editor of The Central Blue. He has had a long-term interest in the development and improvement of airborne ISR having conducted multiple operational deployments in that role. He is a graduate of the USAF School of Advanced Air and Space Studies. Wing Commander Hallen is currently in Washington, DC.
Header Image: After Francis Gary Powers was shot down over the Soviet Union during a CIA spy flight on May 1. 1960, NASA issued a press release with a cover story about a U-2 conducting weather research that may have strayed off course after the pilot reported difficulties with his oxygen equipment. To bolster the cover-up, a U-2 was quickly painted in NASA markings, with a fictitious NASA serial number, and put on display for the news media at the NASA Flight Research Center at Edwards Air Force Base on May 6, 1960. The U-2 cover story in 1956 was that it was a NASA plane to conduct high-altitude weather research. But various observers doubted this story from the beginning. Certainly the Soviets did not believe it once the aircraft began overflying their territory. The NASA cover story quickly blew up in the agency’s face when both Gary Powers and aircraft wreckage were displayed by the Soviet Union, proving that it was a reconnaissance aircraft. This caused embarrassment for several top NASA officials. (Source: Wikimedia)
Twenty-nineteen represented, for me, a golden age of space nostalgia. Twenty-eighteen through to 2022 represents the fiftieth anniversaries of the 11 human-crewed Apollo flights. Everywhere you turn you see someone in some NASA paraphernalia. Books on the Apollo program and NASA writ large are taking over the Science sections at local bookstores and larger chain stores. The government organisation is enjoying an undeniable resurgence and moment of ‘coolness,’ though I ponder whether anyone under the age of 40 uses that term. Perhaps no single individual enjoyed a greater resurgence in this regard over the last two years than the first man on the moon, Neil A. Armstrong. Twenty-eighteen saw the release of the film First Man, based on the authorised biography of the same name by James R. Hansen. The fiftieth anniversary of the Apollo 11 mission witnessed the release of CNN Film’s Apollo 11 documentary and those in Washington DC were even able to witness the Saturn V launch from the Washington Memorial.
Hansen returns to his topic with the release of Dear Neil Armstrong: Letters to the First Man from All Mankind. At its core, the book is simply a collection of letters, a representative sample of the hundreds of thousands of letters that were sent to Armstrong before, during, and after his mission; a series of letters that lasted until his death in 2012. This correspondence is now held in the Purdue University Archives as part of Armstrong’s papers. Hansen indicated that this book is the first of at least two books covering the trove of correspondence now housed at Purdue University.
Hansen’s preface included the words given to Armstrong and Lunar Module Pilot Edwin Aldrin printed on a small silicon-disc and left on the surface of the moon. Much like the rest of the book, Hansen only included samples. From Félix Houphouët-Boigny, President of the Ivory Coast (p. xiv), ‘I especially wish that he would turn towards our planet Earth and cry out how insignificant the problems which torture men are when viewed from up there.’ John Gorton, Prime Minister of Australia (p. xv), chose to quote Lord Tennyson’s poem Ulysses ‘to strive, to seek, and to find, and not to yield.’ The disc remains at the foot of the Lunar Module Descent Stage where Aldrin dropped it while climbing back into the Module.
The book is divided into thematic chapters: ‘First Word,’ presents correspondence that poured in during the weeks leading up to the launch of Apollo 11 and deals with letters giving Armstrong advice on what to say. ‘Congratulations and Welcome Home’ samples some of the hundreds-of-thousands cards and messages that poured into Armstrong’s inbox in the immediate aftermath of the mission from military service secretaries, general officers, old friends, and civic leaders. Chapter three entitled ‘The Soviets,’ contains selections from the letters that came in from behind the Iron Curtin including from leaders and citizens of Poland, Serbia, Romania, Czechoslovakia, Yugoslavia, and Hungary. Congratulations from behind the wall also came from fellow Soviet Cosmonauts. Perhaps no better chapter demonstrates how the Apollo 11 mission was viewed as a globally unifying event. ‘For all Mankind’ contains the letters coming in from women, men, and children of all ages all around the globe.
The final three chapters go especially well together: Many Americans wanted a piece of what they considered to be their man on the moon and these letters are found in the chapters ‘From all America,’ ‘Reluctantly Famous,’ and ‘The Principled Citizen.’ Many of the appeals were harmless requests for autographs and at higher levels requests for appearances, but some requests were outright bizarre. For example, one letter requested an impression of Armstrong’s foot in clay (p. 161). Hansen has done a superb job of providing the breadth of requests made to Armstrong in the years following his return to Earth. The simple fact remains that too many of us asked for too much of this man who simply could not respond and give of all he was asked to do.
It would be remiss if I did not ponder what this book tells us about air and space power? As I poured through the selected letters and pondered the many thousands more that Hansen could not include, it became clear that there was and remains to this day something ephemeral and special about crewed spaceflight. The book brought to mind the importance of Joseph Corn’s The Winged Gospel: America’s Romance with Aviation (1983); however, it also demonstrated that the romance with crewed spaceflight is not unique to America at all. In America and around the world, the love and excitement for space exploration were undoubtedly not monolithic, but Armstrong became the embodiment for those who recognised the crewed Apollo missions as something significant and special in the history of mankind.
Dear Neil Armstrong will appeal to those seeking a deeper understanding of what the Apollo program meant, much like Roger D. Launius’ magnificent Apollo’s Legacy, but Hansen’s reaches us on a deeper personal level here. Hansen’s First Man is and will remain, the definitive biography of Armstrong, but the collection Hansen has put together is a must-have for those seeking to understand the more profound social and cultural meaning of Apollo, namely how the world viewed this particular man and what it desired of him in return. As Hansen more eloquently reflected (p. xxiii), ‘[c]ertainly it is my own conclusion that the letters ultimately tell us more about ourselves than they do about Neil.’
Dr Brian Laslie is a US Air Force Historian and currently the Deputy Command Historian at North American Aerospace Defense Command (NORAD) and United States Northern Command (USNORTHCOM). A 2001 graduate of The Citadel and a historian of air power studies, he received his PhD from Kansas State University in 2013. His first book The Air Force Way of War (2015) was selected for the Chief of Staff of the Air Force’s and the Royal Air Force’s Chief of the Air Staff professional reading lists. His recently published Architect of Air Power: General Laurence S. Kuter and the Birth of the US Air Force. He lives in Colorado Springs. He can be found on Twitter at @BrianLaslie.
Header Image: Neil Armstrong is seen here next to the X-15 ship #1 after a research flight. Armstrong made his first X-15 flight on November 30, 1960, in the #1 X-15. He made his second flight on December 9, 1960, in the same aircraft. This was the first X-15 flight to use the ball nose, which provided accurate measurement of airspeed and flow angle at supersonic and hypersonic speeds. The servo-actuated ball nose can be seen in this photo in front of Armstrong’s right hand. The X-15 employed a non-standard landing gear. It had a nose gear with a wheel and tire, but the main landing consisted of skids mounted at the rear of the vehicle. In the photo, the left skid is visible, as are marks on the lakebed from both skids. Because of the skids, the rocket-powered aircraft could only land on a dry lakebed, not on a concrete runway.