Spaceflight before 1951

Spaceflight as a practical endeavor began during World War 2 with the development of operational liquid fueled rockets. This led to a flourishing of missile designs setting the stage for the exploration of space. Beginning life as a weapon, the V-2 was impressed into peaceful service at America's White Sands Missile Range during the late 40s. By 1950, The United States Navy had evolved the design into the Viking capable of more than 100 miles (160 km) in altitude. The Soviet Union developed a virtual copy of the V-2 called the R-1, which first flew in 1948, and by 1950, its successor, the R-2, was in development. The small American WAC Corporal rocket was evolved into the Aerobee sounding rocket, a space science workhorse of the late 1940s.

Spaceflight before 1951
Launch of a V-2 from Peenemünde.
National firsts
Spaceflight Germany (1944)
 United States (1946)
 Soviet Union (1948)
Rockets
Maiden flights V-2
WAC Corporal
Viking (first model)
Bumper
Aerobee RTV-N-8
Aerobee RTV-N-10
Aerobee XASR-SC-1
Aerobee XASR-SC-2
Aerobee RTV-A-1
R-1
R-1A
R-2
RetirementsAerobee RTV-N-8
Bumper

Overview

The era of human spaceflight began in 1942 with the development of the V-2 rocket (A-4) rocket by Germany, the first vehicle capable of reaching the 100 kilometres (62 mi) boundary of space (as defined by the World Air Sports Federation).[1] In 1944, the V-2 set an altitude record of 196 kilometres (122 mi).[2]

The post-war years saw rapid development in rocket technology by both superpowers, jumpstarted by the dozens of V-2s and hundreds of German specialists that ended up in the custody of the Soviet Union and the United States.[3]:216–7[4]:226[5]:43 From 1946—7, the United States Army launched 25 captured V-2s on engineering and scientific flights.[4]:398 The V-2 was also used in early experiments with two-stage rockets: Project Bumper combined the V-2 first stage with the independently developed WAC Corporal as second stage. On 24 February 1949, a Bumper rocket set an altitude record of 417 kilometres (259 mi).[4]:257–8

The V-2, designed for carrying a warhead horizontally rather than vertical science missions, made an inefficient sounding rocket, while the WAC Corporal was too small to carry much scientific equipment.[4]:250 In 1946 the US Navy began development of its own heavy sounding rocket, the Viking, derived in part from the V-2.[6]:21–25 Six had launched by the end of 1950.[6]:236 The Aerobee was developed from the WAC Corporal to loft lighter payloads. First launched in 1947, the solid/liquid-fuel hybrid rocket quickly secured a reputation for reliability.[4]:250–1

The Soviet Union also launched 11 captured V-2s in 1947. These flights were followed by the development of the R-1, a copy of the V-2 with modifications intended to improve reliability.[5]:41 Flight testing of this first Soviet-made liquid-fueled missile began on 13 September 1948,[5]:129 and the rocket entered military service in 1950.[5]:135 At the same time, two advanced rockets with ranges of 600 kilometres (370 mi), the German émigré-designed G-1 (or R-10) and the Russian-designed R-2, competed for limited engineering and production staff, the latter winning out by the end of 1949[5]:65 and being put into service in 1951.[5]:274 The draft plan for the 3,000 kilometres (1,900 mi) range R-3 was approved on 7 December 1949,[5]:67 though it was never developed, later designs proving more useful and achievable.[5]:275–6

Space exploration

Aerobee launch at sea.

With the development of the first generation of purpose-built sounding rockets, the exploration of Earth's upper atmosphere and the nearest reaches of space began in earnest. Aerobee flights in 1948 measured the velocity and density of cosmic rays above 70 miles (110 km). High altitude measurements of the Earth's magnetic field were conducted. The first high quality aerial photographs covering huge swathes of the Earth and large scale cloud formations were returned.[4]:251 Some 50 Aerobee flights were launched by 1950. Around 10 WAC Corporals were also launched in this period.[7]:6

Viking 5, launched 21 November 1950 carried a vast array of photomultiplier tubes, ionization chambers and Geiger counters, for the detection radiation across a wide variety of energies and types. The rocket also carried two movie cameras to take high altitude film of the Earth all the way to its peak height of 108 miles (174 km) as well as Pirani gauges to measure air densities in the upper atmosphere.[6]:148,236 Viking 6, launched 11 December, carried a much lighter payload, but its experiments included a battery of custom built pressure gauges. The rocket underperformed, however, only reaching a maximum altitude of 40 miles (64 km).[6]:151–153,236

The V-2s captured from Germany at the end of World War 2 were also used for scientific missions by the United States and the Soviet Union. By the end of 1950, 63 had been launched by Americans from the White Sands Missile Range in New Mexico, most of them equipped with research instruments.[7]:6 Three of the V-2s launched by the USSR in 1947 carried 500 kilograms (1,100 lb) experiment packages for measuring cosmic rays at high altitude; at least one returned usable data.[8]:56 Two Soviet R-1As also carried scientific equipment during test launches, but neither returned usable data.[9]

Launches

Date and time (UTC) Rocket Flight number Launch site LSP
Payload
(⚀ = CubeSat)
Operator Orbit Function Decay (UTC) Outcome
Remarks

1942

13 June - 12 December V-2 Peenemünde Wehrmacht
Wehrmacht Suborbital Missile testSame dayMixed
7 V-2 rockets launched on test flights, 3 successfully[10]

1943

7 January - 30 December V-2 Peenemünde, Heidelager Wehrmacht
Wehrmacht Suborbital Missile testSame dayMixed
39 V-2 rockets launched on test flights; at least 9 failures[10]

1944

20 June V-2 Greifswalder Oie Wehrmacht
MW 18014[2] Wehrmacht Suborbital Missile test20 JuneSuccessful
First artificial object to cross what would later be defined as the Kármán line and hence first spaceflight.
Vertical test, apogee: 174.6 kilometres (108.5 mi)
8 September V-2 Houffalize Wehrmacht
Wehrmacht Suborbital Missile testSame daySuccessful
First combat usage of V-2 after more than a hundred test flights; ~3000 combat launches followed[10]

1945

2 October V-2 Cuxhaven UK military
Suborbital 2 OctoberSuccessful
First launch of Operation Backfire; apogee: 69.4 kilometres (43.1 mi)[11]
4 October V-2 Cuxhaven UK military
Suborbital 4 OctoberPartial failure
apogee: 17.4 kilometres (10.8 mi) [11]
15 October V-2 Cuxhaven UK military
Suborbital 14 OctoberSuccessful
Press and international observers present; Apogee: 64 kilometres (40 mi)[11]

1946

16 April
21:47
V-2 White SandsLaunch Complex 33 General Electric/U.S. Army
WSPG[12] Suborbital Cosmic Radiation (Applied Physics Laboratory)[13]16 AprilGuidance failure[12]
First launch of Project Hermes, apogee: 8 kilometres (5.0 mi)
10 May
21:15
V-2 White Sands LC-33 G.E./U.S. Army
WSPG[12] Suborbital Cosmic Radiation (APL),[13] Chemical Release?*[14]10 MaySuccessful
Project Hermes launch, apogee: 112 kilometres (70 mi), First US spaceflight
29 May
21:12
V-2 White Sands LC-33 G.E./U.S. Army
G.E.[12] Suborbital Cosmic Radiation (APL),[13] Chemical Release?*[14]29 MaySuccessful
Project Hermes launch, apogee: 112 kilometres (70 mi)
13 June
23:40
V-2 White Sands LC-33 G.E./U.S. Army
G.E.[12] Suborbital Solar radiation, Ionosphere (Naval Radiation Laboratory)[13]13 JuneSuccessful
Project Hermes launch, apogee: 117 kilometres (73 mi)
28 June
19:25
V-2 White Sands LC-33 G.E./U.S. Army
Naval Radiation Laboratory[12] Suborbital Cosmic Radiation, Solar Radiation, Pressure, Temperature. Ionosphere[15]:336–337 (V-2 NO. 6)28 JuneSuccessful
Project Hermes launch, apogee: 108 kilometres (67 mi)
9 July
19:25
V-2 White Sands LC-33 G.E./U.S. Army
G.E.[12] Suborbital Cosmic Radiation, Ionosphere (Naval Radiation Laboratory), Biological (Harvard University)[15]:338–339 (V-2 NO. 7)9 JulySuccessful
Project Hermes launch, apogee: 134 kilometres (83 mi)
19 July
19:11
V-2 White Sands LC-33 G.E./U.S. Army
G.E.[12] Suborbital Ionospheric (NRL)[13]19 JulyExplosion at 28.5 seconds[12]
Project Hermes launch, apogee: 5 kilometres (3.1 mi)
30 July
19:36
V-2 White Sands LC-33 G.E./U.S. Army
Applied Physics Laboratory[12] Suborbital Cosmic Radiation, Ionosphere (NRL)[15]:342–343 (V-2 NO. 9)30 JulySuccessful
Project Hermes launch, apogee: 167 kilometres (104 mi)
15 August
18:00
V-2 White Sands LC-33 G.E./U.S. Army
Princeton University[12] Suborbital Cosmic Radiation, Ionosphere[15]:344 (V-2 NO. 10)15 AugustGuidance Failure at 13.9 seconds[12]
Project Hermes launch, apogee: 3 kilometres (1.9 mi)
22 August
17:15
V-2 White Sands LC-33 G.E./U.S. Army
University of Michigan,[12] ARDC?[16] Suborbital Pressure, Density, Ionosphere Aeronomy, Sky Brightness[13]22 AugustGuidance Failure immediately after lift[12]
Project Hermes launch
10 October
18:02
V-2 White Sands LC-33 G.E./U.S. Army
NRL[12] Suborbital Cosmic Ray, Ionosphere, Pressure-Temperature, Solar Spectroscopy, Ejection of Cosmic Ray Recording Camera[17] Selected seeds (Harvard), Cross jet attenuation transmitter & receiver[15]:346–347 (V-2 NO. 12)10 OctoberSuccessful
Project Hermes launch, apogee: 164 kilometres (102 mi)
24 October
19:15
V-2 White Sands LC-33 G.E./U.S. Army
APL[12] Suborbital Cosmic & Solar radiation, winds, photography[13]24 OctoberSuccessful, Short burning time (59 sec)[18]
Project Hermes launch, apogee: 105 kilometres (65 mi), First photo of Earth from space
7 November
20:31
V-2 White Sands LC-33 G.E./U.S. Army
Princeton University[12] Suborbital Cosmic Radiation,[13]7 NovemberGuidance Failure at 2 seconds, missile turned sideways, flew horizontal and was destroyed[15]:350 (V-2 NO. 14)
Project Hermes launch, apogee: 0.39 kilometres (0.24 mi)
21 November
16:55
V-2 White Sands LC-33 G.E./U.S. Army
Watson Laboratories, University of Michigan,[19] ARDC?[16] Suborbital Pressure, Temperature, Ionosphere, Sky Brightness,Voltage breakdown[15]:351–352 (V-2 NO. 15)21 NovemberSuccessful
Project Hermes launch, apogee: 102 kilometres (63 mi)
5 December
20:08
V-2 White Sands LC-33 G.E./U.S. Army
NRL [12] Suborbital Cosmic & Solar Radiation, Pressure, Temperature, Photography[13]5 DecemberSuccessful, Guidance Problems
Project Hermes launch, apogee: 167 kilometres (104 mi)
18 December
05:12
V-2 White Sands LC-33 G.E./U.S. Army
GRENADES APL[12] Suborbital Cosmic Radiation, Meteor research, Biological (National Institute of Health),[13] Chemical release*[14]18 DecemberSuccessful, extraordinary range due to guidance failure[15]:354 (V-2 NO. 16)
Project Hermes launch, apogee: 187 kilometres (116 mi)

1947

10 January
21:13
V-2 White SandsLaunch Complex 33 G.E./U.S. Army
NRL[12] Suborbital Cosmic Radiation,[13] "Daughter Canister Release (Air Material Command)[15]:357–358 (V-2 NO. 18)10 JanuarySuccessful, Roll at 40 seconds[12]
Project Hermes launch, apogee: 116 kilometres (72 mi)
24 January
00:22
V-2 White Sands LC-33 G.E./U.S. Army
G.E.[12] Suborbital Test Guidance System,[12] Hermes A-2 Telemetry System Test[15]:359–360 (V-2 NO. 19)24 JanuarySuccessful
Project Hermes launch, apogee: 49.88 kilometres (30.99 mi).
20 February
18:16
V-2 White Sands LC-33 G.E./U.S. Army
Blossom I Air Materiel Command[12] Suborbital Pressure-temperature (University of Michigan), Ionosphere (Air Force Cambridge Research Center, UoM), Sky brightness, Voltage Breakdown measurements (AFCRC), Biological rye, cotton seeds and fruit flies, first animals in space,[20] Blossom parachute recovery of canister (Cambridge Field Station)[15]:361–362 (V-2 NO. 20)20 FebruarySuccessful, Guidance disturbance at 27 sec, Roll at 37.5 sec[12]
Project Hermes launch, apogee: 109 kilometres (68 mi).
7 March
18:23
V-2 White Sands LC-33 G.E./U.S. Army
NRL[12] Suborbital Cosmic Radiation, Pressure-temperature, Solar Radiation, Ionosphere (NRL), Biological rye, cotton seeds and fruit flies (Harvard)[15]:363–365 (V-2 NO. 21)7 MarchSuccessful
Project Hermes launch, apogee: 161 kilometres (100 mi).
1 April
20:10
V-2 White Sands LC-33 G.E./U.S. Army
APL[12] Suborbital Cosmic Radiation, Solar Radiation (APL & Yerkes Observatory), High altitude photography (Gun Sight Aiming Point camera)[15]:366–367 (V-2 NO. 22)1 AprilSuccessful
Project Hermes launch, apogee: 129 kilometres (80 mi)
9 April
00:10
V-2 White Sands LC-33 G.E./U.S. Army
APL[12] Suborbital Cosmic Radiation, Solar Radiation, High altitude photography.[15]:368–369 (V-23 NO. 20)9 AprilSuccessful
Project Hermes launch, apogee: 103 kilometres (64 mi)
17 April
23:22
V-2 White Sands LC-33 G.E./U.S. Army
GRENADES G.E.[12] Suborbital Pressure-Temperature: 9 Grenades (Signal Corps Engineering Laboratories)[15]:370–371 (V-2 NO. 24)17 AprilSuccessful, Roll at 57.5 seconds[12]
Project Hermes launch, apogee: 140 kilometres (87 mi)
15 May
23:08
V-2 White Sands LC-33 G.E./U.S. Army
NRL[12] Suborbital Density-pressure-temperature grenades (SCEL), (Michigan University), Composition, Cosmic Radiation, Solar Radiation (NRL)[15]:374–375 (V-2 NO. 26)15 MaySuccessful, Steering trouble from lift[12]
Project Hermes launch, apogee: 122 kilometres (76 mi)
29 May[21] Hermes B-1 White Sands LC-33 G.E./U.S. Army
Hermes II G.E. Suborbital Missile test of ramjet diffusers called "Organ."[22]29 MayMissile went South instead of North, landed in Mexico[23]
Project Hermes launch, apogee: 50 kilometres (31 mi), maiden flight of Hermes II, aka Hermes B-1
10 July
19:18
V-2 White Sands LC-33 G.E./U.S. Army
NRL[12] Suborbital Density-pressure-temperature, Cosmic Radiation, Ionosphere, Simulant agent experiment - Camp Detrick, Indiana, seed containers in control chamber (Harvard College Observatory)[15]:363–364 (V-2 NO. 29)10 JulyLaunch failure, Steering trouble from lift[12]
Project Hermes launch, apogee: 16 kilometres (9.9 mi)
29 July
12:55
V-2 White Sands LC-33 G.E./U.S. Army
APL[12] Suborbital Cosmic Radiation, Solar Radiation, High altitude photography (APL)[15]:386–387 (V-2 NO. 30)29 JulySuccessful, Vane #4 ceased to operate at 27 sec[12]
Project Hermes launch, apogee: 159 kilometres (99 mi)
6 September V-2 USS Midway, AO-10 U.S. Navy
U.S. Navy Suborbital Missile test6 SeptemberLaunch failure
Operation Sandy, first shipboard missile launch, apogee: 1 kilometre (0.62 mi)
9 October
19:15
V-2 White Sands LC-33 G.E./U.S. Army
G.E.[12] Suborbital Density-pressure-temperature, Skin temperature, Composition (University of Michigan), Solar radiation (NRL)[15]:386–387 (V-2 NO. 30)9 OctoberSuccessful, Steering disturbance at 48.4 sec. Roll at 52 sec.[12]
Project Hermes launch, apogee: 156 kilometres (97 mi)
18 October
07:47
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test28 OctoberPartial failure
Apogee: 86 kilometres (53 mi); destroyed during ballistic portion of flight[24]
20 October
07:47
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test20 OctoberPartial failure
Apogee: 85 kilometres (53 mi); tore loose from launch stand; flew 180 kilometres (110 mi) left of planned target[24]
23 October
14:05
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test23 OctoberLaunch failure
Apogee: 14 kilometres (8.7 mi); payload destroyed, rocket disintegrated[24]
28 October
14:05
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test28 OctoberSuccessful
Apogee: 87 kilometres (54 mi)[24]
31 October
13:41
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test31 OctoberLaunch failure
Apogee: 0 kilometres (0 mi); loss of control on longitudinal axis[24]
2 November
15:14
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test2 NovemberSuccessful
Apogee: 88 kilometres (55 mi)[24]
3 November
12:05
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test3 NovemberLaunch failure
Apogee: 0 kilometres (0 mi); rolled after launch and lost stabilization[24]
4 November
15:02
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test4 NovemberSuccessful
Apogee: 89 kilometres (55 mi)[24]
10 November
09:39
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test10 NovemberLaunch failure
Apogee: 11 kilometres (6.8 mi); lost guidance[24]
13 November
08:30
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test13 NovemberSuccessful
Apogee: 89 kilometres (55 mi)[24]
13 November
14:00
V-2 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test13 NovemberPartial failure
Apogee: 89 kilometres (55 mi); broke up on re-entry[24]
20 November
23:47
V-2 White Sands LC-33 G.E./U.S. Army
G.E.[12] Suborbital Technology development flight for GE.[25]20 NovemberLaunch failure, Propulsion trouble at 36 sec.[12]
Apogee: 21 kilometres (13 mi)
24 November
17:20
Aerobee RTV-N-8 White Sands Launch Complex 35 U.S. Navy
Applied Physics Laboratory[15]:Table I, 7.3 Suborbital 24 NovemberLaunch failure, off course, flight terminated.[26]
Apogee: 56 kilometres (35 mi)[27]
8 December
21:42
V-2 White Sands LC-33 G.E./U.S. Army
Blossom II AMC[12] Suborbital Density-pressure-temperature (Michigan University), Skin temperature (Boston University), Solar soft X-rays,Vertical incidence ionosphere propagation, Oblique incidence ionosphere propagation, Aspect project (cameras to be lowered by parachute) (Wright Air Development Center), Sky brightness (AFCRC)[15]:379–382 (V-2 NO. 28)8 DecemberSuccessful
Project Hermes launch, apogee: 105 kilometres (65 mi)

1948

22 January
20:12
V-2 White SandsLaunch Complex 33 G.E./U.S. Army
NRL Suborbital 22 JanuarySuccessful
Project Hermes launch, apogee: 159 kilometres (99 mi)[10]
6 February
17:17
V-2 White Sands LC-33 G.E./U.S. Army
G.E. Suborbital 6 FebruarySuccessful
Project Hermes launch, apogee: 113 kilometres (70 mi)[10]
5 March
22:51
Aerobee RTV-N-8 White Sands LC-35 U.S. Navy
APL Suborbital Chemical release5 MarchSuccessful
Apogee: 118 kilometres (73 mi)[27]
19 March
23:10
V-2 White Sands LC-33 G.E./U.S. Army
Blossom IIA G.E. Suborbital 19 MarchLaunch failure
Project Hermes launch, apogee: 5.5 kilometres (3.4 mi)[10]
2 April
13:47
V-2 White Sands LC-33 G.E./U.S. Army
US Army Signal Corps Suborbital 2 AprilSuccessful
Project Hermes launch, apogee: 144 kilometres (89 mi)[10]
13 April
21:41
Aerobee RTV-N-8 White Sands LC-35 U.S. Navy
APL Suborbital 13 AprilSuccessful
Apogee: 114 kilometres (71 mi)[27]
19 April
19:54
V-2 White Sands LC-33 G.E./U.S. Army
NRL Suborbital 19 AprilGuidance Failure
Project Hermes launch, apogee: 56 kilometres (35 mi)[10]
13 May
13:43
Bumper White Sands LC-33 G.E./U.S. Army
Bumper 1 G.E. Suborbital 13 MaySuccessful
Maiden flight of Bumper, apogee: 127.6 kilometres (79.3 mi)[28]
27 May
14:15
V-2 White Sands LC-33 G.E./U.S. Army
APL Suborbital 27 MaySuccessful
Project Hermes launch, apogee: 140 kilometres (87 mi)[10]
11 June
10:22
V-2 White Sands LC-33 G.E./U.S. Army
AMC Suborbital 11 JuneLaunch Failure, Premature Valve Closure
Project Hermes launch, apogee: 63 kilometres (39 mi)[10]
26 July
16:47
Aerobee RTV-N-8 White Sands LC-35 U.S. Navy
APL Suborbital 26 JulySuccessful
Apogee: 113 kilometres (70 mi)[27]
26 July
18:03
V-2 White Sands LC-33 G.E./U.S. Army
APL Suborbital 26 JulySuccessful, Propulsion issues at 45.2s
Project Hermes launch, apogee: 97 kilometres (60 mi)[10]
5 August
12:07
V-2 White Sands LC-33 G.E./U.S. Army
NRL Suborbital UV Astronomy
Solar X-ray
5 AugustSuccessful
Project Hermes launch, apogee: 167 kilometres (104 mi)[10]
6 August
1:37
Aerobee RTV-N-8 White Sands LC-35 U.S. Navy
APL Suborbital Aeronomy/solar UV6 AugustSuccessful
Apogee: 96.6 kilometres (60.0 mi)[27]
19 August
14:45
Bumper White Sands LC-33 G.E./U.S. Army
Bumper 2 G.E. Suborbital 19 AugustLaunch failure
Apogee: 13.1 kilometres (8.1 mi)[28]
3 September
01:00
V-2 White Sands LC-33 G.E./U.S. Army
GRENADES USASC Suborbital 3 SeptemberSuccessful
Project Hermes launch, apogee: 151 kilometres (94 mi)[10]
17 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test17 SeptemberLaunch failure
Maiden flight of R-1[29]
30 September
15:30
Bumper White Sands LC-33 G.E./U.S. Army
Bumper 3 G.E. Suborbital 30 September2nd Stage Failure
Apogee: 150.6 kilometres (93.6 mi)[28]
10 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test10 OctoberSuccessful
Apogee: 100 kilometres (62 mi), first Soviet spaceflight[29]
11 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test, sounding rocket11 OctoberSuccessful
First Soviet spaceflight with scientific experiments[29]
13 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test13 OctoberSuccessful
[29]
21 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test21 OctoberSuccessful
[29]
23 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test23 OctoberSuccessful
[29]
1 November
14:24
Bumper White Sands LC-33 G.E./U.S. Army[28]
Bumper 4 G.E. Suborbital 1 NovemberTail explosion at 28.5s
Apogee: 5 kilometres (3.1 mi)
1 November R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test1 NovemberSuccessful
Apogee: 100 kilometres (62 mi)[29]
2 November
00:12
Aerobee RTV-N-8 White Sands LC-35 U.S. Navy
APL Suborbital Cosmic radiation, solar radiation and particles2 NovemberSuccessful
Apogee: 91 kilometres (57 mi)[27]
3 November R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test3 NovemberSuccessful
[29]
4 November R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test4 NovemberSuccessful
[29]
5 November R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test5 NovemberSuccessful
last of nine launches in the first test series[29]
18 November
22:35
V-2 White Sands LC-33 G.E./U.S. Army
G.E. Suborbital Ramjet research18 NovemberSuccessful
Project Hermes launch, apogee: 145 kilometres (90 mi)[10]
9 December
16:08
V-2 White Sands LC-33 G.E./U.S. Army
USASC Suborbital 9 DecemberSuccessful
Project Hermes launch, apogee: 108 kilometres (67 mi)[10]
9 December
22:38
Aerobee RTV-N-8 White Sands LC-35 U.S. Navy
APL Suborbital Aeronomy9 DecemberSuccessful
Apogee: 91 kilometres (57 mi)[27]

1949

14 January
20:26
Hermes B-1 White SandsLaunch Complex 33 U.S. Army
Hermes II U.S. Army Suborbital Missile test14 JanuaryLaunch failure
Project Hermes launch, apogee: 1 kilometre (0.62 mi)[30]
28 January
17:20
V-2 White Sands LC-33 G.E./U.S. Army
NRL Suborbital Solar x-ray / ionosphere / aeronomy / biology28 JanuaryLaunch failure
Blossom launch, apogee: 60 kilometres (37 mi)[30]
29 January
06:17
Aerobee RTV-N-8 White Sands U.S. Navy
APL Suborbital Radiation, ionospheric29 JanuarySuccessful
Apogee: 96.6 kilometres (60.0 mi)[27]
1 February
18:38
Aerobee RTV-N-8 White Sands U.S. Navy
APL Suborbital Solar UV and X-Ray1 FebruaryLaunch Failure
Apogee: 0 kilometres (0 mi)[27]
17 February
17:00
V-2 White Sands LC-33 G.E./U.S. Army
APL Suborbital 17 FebruarySuccessful
Apogee: 100.8 kilometres (62.6 mi)[30]
24 February
22:14
Bumper White Sands LC-33 G.E./U.S. Army
Bumper 5 G.E. Suborbital 24 FebruarySuccessful
Apogee: 393 kilometres (244 mi). The new altitude record.[28]
2 March
00:15
Aerobee RTV-N-8 White Sands LC-35 U.S. Navy
APL Suborbital Test for shipboard launch; dummy payload2 MarchLaunch Failure
Apogee: 0 kilometres (0 mi)[27]
17 March
23:20
Aerobee RTV-N-8 USS Norton Sound, PO-22 LP-1 U.S. Navy
APL Suborbital Ionospheric17 MarchSuccessful
Apogee: 105 kilometres (65 mi)[27]
22 March
06:43
V-2 White Sands LC-33 G.E./U.S. Army
Blossom IVA AMC Suborbital Ionospheric22 MarchSuccessful
Blossom IVA; apogee: 129 kilometres (80 mi)[30]
22 March
17:20
Aerobee RTV-N-8 USS Norton Sound, PO-22 LP-1 U.S. Navy
APL Suborbital Ionospheric22 MarchSuccessful
Apogee: 105 kilometres (65 mi)[27]
24 March
15:14
Aerobee RTV-N-8 USS Norton Sound, PO-22 LP-1 U.S. Navy
APL Suborbital Ionospheric24 MarchLaunch failure
Apogee: 5 kilometres (3.1 mi), pressure valve malfunction, booster separated on ignition[27]
11 April
22:05
V-2 White Sands LC-33 G.E./U.S. Army
USASC Suborbital 11 AprilSuccessful
Apogee: 85 kilometres (53 mi)[30]
22 April
00:17
Bumper White Sands LC-33 G.E./U.S. Army
Bumper 6 G.E. Suborbital 22 AprilLaunch failure
Apogee: 50 kilometres (31 mi)[28]
3 May Viking (first model) White Sands ALA-1 U.S. Navy
Viking 1 NRL Suborbital Aeronomy
Imaging
3 MayPartial launch failure
Apogee: 83 kilometres (52 mi)[6]:236[31]
5 May
15:15
V-2 White Sands LC-33 G.E./U.S. Army
G.E. Suborbital 5 MayLaunch failure
Apogee: 8.9 kilometres (5.5 mi)[30]
7 May
03:12
R-1A Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test7 MaySuccessful
Apogee: 109 kilometres (68 mi), maiden flight of R-1A[9]
10 May
15:57
R-1A Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test10 MaySuccessful
[9]
15 May
02:48
R-1A Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test15 MaySuccessful
Tested seperable warhead[9]
16 May
21:55
R-1A Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test16 MaySuccessful
Tested seperable warhead[9]
24 May
01:40
R-1A Kapustin Yar NII-88 Section 3
FIAR-1 NII-88 Section 3 Suborbital Missile test/aeronomy24 MayPartial Failure
Apogee: 32.9 kilometres (20.4 mi); vertical flight, tested seperable warhead, carried aeronomy experiments that were not recovered[9]
28 May
01:50
R-1A Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test28 MayPartial Failure
Apogee: 31.9 kilometres (19.8 mi); Final R1-A flight -- vertical flight, tested seperable warhead, carried aeronomy experiments damaged on landing and returned no usable data[9]
2 June
13:10
Aerobee XASR-SC-1 White Sands U.S. Navy
APL Suborbital Aeronomy2 JuneSuccessful
Apogee: 78.4 kilometres (48.7 mi)[27]
14 June
22:35
V-2 White Sands LC-33 G.E./U.S. Army
Blossom IVB AMC Suborbital Biological, Atmospheric14 JuneSuccessful
Apogee: 133.9 kilometres (83.2 mi), carried Albert II, first monkey in space[20][32][30]
15 June
02:03
Aerobee RTV-N-8 White Sands U.S. Navy
NRL Suborbital Ozone research15 JuneSuccessful
Apogee: 109 kilometres (68 mi)[27]
17 June
02:03
Aerobee RTV-N-8 White Sands U.S. Navy
NRL Suborbital classified mission17 JuneSuccessful
Apogee: 88 kilometres (55 mi)[27]
23 June
23:21
Aerobee RTV-N-8 White Sands U.S. Navy
NRL Suborbital Solar, aeronomy23 JuneSuccessful
Apogee: 88 kilometres (55 mi)[27]
21 July
16:01
Aerobee XASR-SC-1 White Sands LC-35 U.S. Navy
APL Suborbital Aeronomy21 JulySuccessful
Apogee: 76.1 kilometres (47.3 mi)[27]
6 September
16:57
Viking (first model) White Sands ALA-1 U.S. Navy
Viking 2 NRL Suborbital Aeronomy
Imaging
6 SeptemberLaunch failure
Apogee: 57 kilometres (35 mi)[6]:236[31]
10 September R-1 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test10 September
First flight of second series of tests[29]
11 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test11 September
[29]
13 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test13 September
[29]
14 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test14 September
[29]
16 September
23:19
V-2 White Sands LC-33 G.E./U.S. Army
Blossom IVC AMC Suborbital Biological16 SeptemberLaunch Failure
Apogee: 5 kilometres (3.1 mi), carried Albert III[30]
17 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test17 September
[29]
19 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test19 September
[29]
20 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test20 SeptemberLaunch failure
[29]
20 September
17:03
Aerobee XASR-SC-1 White Sands LC-35 U.S. Navy
APL Suborbital Aeronomy20 SeptemberSuccessful
Apogee: 58.6 kilometres (36.4 mi)[27]
23 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test23 SeptemberLaunch failure
25 September
11:16
R-2E Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test25 SeptemberSuccessful
Maiden flight of R-2E -- a modifed R-1 missile to test R-2 concepts: integral fuel tank and seperable warhead[33]
28 September R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test28 September
[29]
29 September
16:58
V-2 White Sands LC-33 G.E./U.S. Army
NRL Suborbital 29 SeptemberSuccessful
Apogee: 151.1 kilometres (93.9 mi)[30]
30 September
11:49
R-2E Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test30 SeptemberSuccessful
[33]
2 October
11:00
R-2E Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test2 OctoberPartial failure
Fire in tail compartment[33]
3 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test3 October
[29]
6 October Hermes B-1 White Sands LC-33 U.S. Army
Hermes II U.S. Army Suborbital Missile test6 OctoberLaunch failure
Project Hermes launch, apogee: 4 kilometres (2.5 mi)[30]
8 October
06:05
R-2E Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test8 OctoberSuccessful
[33]
8 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test8 October
[29]
10 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test10 October
[29]
11 October
12:45
R-2E Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test11 OctoberPartial failure
Fire in tail compartment, last of five R-2E launches[33]
12 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test12 October
[29]
13 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test13 October
[29]
13 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test13 October
[29]
15 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test15 October
[29]
18 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test18 October
[29]
19 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test19 October
[29]
22 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test22 October
[29]
23 October R-1 Kapustin Yar NII-88 Section 3
NII-88 Section 3 Suborbital Missile test23 October
Last of second series of twenty firings (14 successes, 6 failures)[29]
18 November
16:03
V-2 White Sands LC-33 G.E./U.S. Army
GRENADES USASC Suborbital 18 NovemberSuccessful
Apogee: 124.2 kilometres (77.2 mi)[30]
2 December
22:20
Aerobee RTV-A-1 Holloman Holloman AFB Launch Complex A|LC-A U.S.A.F.
U.S.A.F. Suborbital Solar, imaging, aeronomy2 DecemberSuccessful
Apogee: 96 kilometres (60 mi)[27]
6 December
18:32
Aerobee XASR-SC-1 White Sands LC-35 U.S. Army
U.S. Army Suborbital Air sampling aeronomy mission6 DecemberSuccessful
Apogee: 64.9 kilometres (40.3 mi)[27]
7 December
00:16
Aerobee XASR-SC-1 White Sands LC-35 U.S. Army
U.S. Army Suborbital Air sampling aeronomy mission7 DecemberSuccessful
Apogee: 60 kilometres (37 mi)[27]
8 December
19:15
V-2 White Sands LC-33 G.E./U.S. Army
Blossom IVD AMC Suborbital Biological8 DecemberSuccessful
Apogee: 127 kilometres (79 mi), carried Albert IV[30]
15 December
17:10
Aerobee RTV-A-1 Holloman AFB Launch Complex A U.S.A.F.
APL Suborbital Solar, imaging, aeronomy15 DecemberLaunch failure
Apogee: 0 kilometres (0 mi)[27]

1950

15 January
23:45
Aerobee RTV-N-10 Bering Sea U.S. Navy
Applied Physics Laboratory Suborbital Particle physics15 JanuarySuccessful
Ship-launched; Apogee: 72 kilometres (45 mi)[27]
18 January
23:17
Aerobee RTV-N-10 Bering Sea U.S. Navy
APL Suborbital Particle physics18 JanuarySuccessful
Ship-launched; Apogee: 80 kilometres (50 mi)[27]
9 February
21:44
Viking (first model) White Sands ALA-1 U.S. Navy
Viking 3 NRL Suborbital Solar
Imaging
9 FebruaryLaunch failure
Veered off-course, failed to reach space, apogee: 80.5 kilometres (50.0 mi)[6]:236[31]
14 February
23:14
Aerobee RTV-N-8 White SandsLaunch Complex 33 U.S. Navy
APL Suborbital Cosmic gamma Ionosphere mission14 FebruarySuccessful
Apogee: 87.6 kilometres (54.4 mi)[27]
17 February
18:00
V-2 White Sands LC-33 G.E./U.S. Army
NRL Suborbital 17 FebruarySuccessful
Apogee: 148 kilometres (92 mi)[30]
22 February
00:54
Aerobee XASR-SC-1 White Sands LC-35 U.S. Army
U.S. Army Suborbital Aeronomy22 FebruarySuccessful
Apogee: 87.6 kilometres (54.4 mi)[27]
4 March
00:36
Aerobee XASR-SC-1 White Sands LC-35 U.S. Army
U.S. Army Suborbital Aeronomy4 MarchSuccessful
Apogee: 72.4 kilometres (45.0 mi)[27]
14 March
20:43
Aerobee RTV-A-1 Holloman LC-A U.S.A.F.
U.S.A.F. Suborbital Solar radiation14 MarchLaunch failure
Apogee: 3.2 kilometres (2.0 mi)[27]
26 April
01:11
Aerobee XASR-SC-2 White Sands LC-35 U.S. Navy
U.S. Army Suborbital Atmospheric26 AprilSuccessful
Apogee: 99.5 kilometres (61.8 mi)[27]
12 May
03:08
Viking (first model) USS Norton Sound, PO-8 U.S. Navy
Viking 4 U.S. Navy Suborbital Ionospheric
Aeronomy
12 MaySuccessful
Apogee: 171 kilometres (106 mi)[6]:236[31]
12 May
12:30
Aerobee RTV-N-10 White Sands LC-35 U.S. Navy
APL Suborbital Particle physics12 MaySuccessful
Ship-launched; Apogee: 88.1 kilometres (54.7 mi)[27]
26 May
19:43
Aerobee RTV-A-1 Holloman AFB Launch Complex A U.S.A.F.
U.S.A.F. Suborbital Solar radiation26 MaySuccessful
Apogee: 67.6 kilometres (42.0 mi)[27]
2 June
17:07
Aerobee RTV-A-1 Holloman AFB Launch Complex A U.S.A.F.
U.S.A.F. Suborbital Solar radiation2 JuneSuccessful
Apogee: 67.6 kilometres (42.0 mi)[27]
20 June
15:38
Aerobee RTV-A-1 Holloman AFB Launch Complex A U.S.A.F.
U.S.A.F. Suborbital aeronomy20 JuneSuccessful
Apogee: 92.6 kilometres (57.5 mi)[27]
14 July
08:39
Aerobee XASR-SC-1 White Sands LC-35 U.S. Army
U.S. Army Suborbital Aeronomy14 JulySuccessful
Apogee: 69.2 kilometres (43.0 mi)[27]
24 July
14:29
Bumper Cape Canaveral Launch Complex 3 G.E./U.S. Army
Bumper 8 G.E. Suborbital Test24 JulyLaunch failure
First missile launch from Cape Canaveral; apogee: 20 kilometres (12 mi)[28]
29 July
11:25
Bumper Cape Canaveral Launch Complex 3 G.E./U.S. Army
Bumper 8 G.E. Suborbital Test29 JulyLaunch failure
Apogee: 50 kilometres (31 mi)[28]
17 August
15:45
Aerobee RTV-N-10 White Sands LC-35 U.S. Navy
APL Suborbital Spectrometry17 AugustSuccessful
Apogee: 101 kilometres (63 mi)[27]
31 August
17:09
V-2 White Sands LC-33 G.E./U.S. Army
Blossom IVG AMC Suborbital Biological31 AugustSuccessful
Apogee: 137 kilometres (85 mi), carried a mouse[30]
1 October R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 OctoberPartial failure
maiden flight of R-2 prototype missile; missed target[34]
1 October R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 OctoberPartial failure
missed target[34]
12 October
19:36
Aerobee RTV-A-1 Holloman AFB Launch Complex A U.S.A.F.
U.S.A.F. Suborbital Photography12 OctoberSuccessful
Apogee: 91.3 kilometres (56.7 mi)[27]
17 October
04:00
Aerobee XASR-SC-2 White Sands LC-35 U.S. Navy
U.S. Army Suborbital Aeronomy17 OctoberSuccessful
Apogee: 80.5 kilometres (50.0 mi)[27]
18 October
04:30
Aerobee XASR-SC-2 White Sands LC-35 U.S. Navy
U.S. Army Suborbital Aeronomy18 OctoberSuccessful
Apogee: 85 kilometres (53 mi)[27]
21 October R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test21 OctoberPartial Failure
missed target[34]
26 October
23:02
V-2 White Sands LC-33 G.E./U.S. Army
Ballistic Research Laboratory Suborbital 26 OctoberLaunch Failure
Apogee: 8.1 kilometres (5.0 mi)[30]
27 October
13:30
Aerobee XASR-SC-2 White Sands LC-35 U.S. Navy
U.S. Army Suborbital Aeronomy27 OctoberSuccessful
Apogee: 80.2 kilometres (49.8 mi)[27]
1 November R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 NovemberPartial failure
Missed target[34]
1 November R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 NovemberPartial failure
Missed target[34]
1 November R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 NovemberPartial failure
Missed target[34]
1 November R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 NovemberPartial failure
Missed target[34]
1 November R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 NovemberPartial failure
missed target[34]
2 November
16:29
Aerobee RTV-A-1 Holloman AFB Launch Complex A U.S.A.F.
U.S.A.F. Suborbital Air glow research2 NovemberSuccessful
Apogee: 91.8 kilometres (57.0 mi)[27]
9 November Hermes B-1 White Sands LC-33 U.S. Army
Hermes II U.S. Army Suborbital Missile test9 NovemberPartial Success[35]
Project Hermes launch, apogee: 150 kilometres (93 mi)Apogee: 80.2 kilometres (49.8 mi)
21 November
17:18
Viking (first model) White Sands ALA-1 U.S. Navy
Viking 5 NRL Suborbital Solar
Ionospheric
21 NovemberSuccessful
Apogee: 174 kilometres (108 mi)[6]:236[31]
1 December R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 DecemberPartial failure
Missed target[34]
1 December R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 DecemberPartial failure
Missed target[34]
1 December R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test1 DecemberPartial failure
Missed target[34]
11 December
17:04
Aerobee XASR-SC-2 White Sands LC-35 U.S. Navy
U.S. Army Suborbital Aeronomy11 DecemberSuccessful
Apogee: 83.9 kilometres (52.1 mi)[27]
12 December
04:06
Aerobee XASR-SC-2 White Sands LC-35 U.S. Navy
U.S. Army Suborbital Aeronomy12 DecemberSuccessful
Apogee: 84 kilometres (52 mi)[27]
12 December
07:04
Viking (first model) White Sands ALA-1 U.S. Navy
Viking 6 U.S. Navy Suborbital 12 DecemberLaunch failure
Apogee: 64 kilometres (40 mi)[6]:236[31]
12 December
09:10
Aerobee XASR-SC-2 White Sands LC-35 U.S. Navy
U.S. Army Suborbital Aeronomy12 DecemberSuccessful
Apogee: 77 kilometres (48 mi)[27]
12 December
18:26
Aerobee RTV-A-1 Holloman AFB Launch Complex A ARDC
ARDC Suborbital 12 DecemberSuccessful
Apogee: 106 kilometres (66 mi)[27]
19 December
18:52
Aerobee XASR-SC-2 White Sands LC-35 U.S. Navy
U.S. Army Suborbital Aeronomy19 DecemberSuccessful
Apogee: 81.9 kilometres (50.9 mi)[27]
20 December R-2 Kapustin Yar OKB-1
OKB-1 Suborbital Missile test20 DecemberPartial failure
Final flight of 12 mission prototype series; missed target[34]

Suborbital launch summary (1945-1950)

By country

United Kingdom: 3Soviet Union: 63USA: 132

Country Launches Successes Failures Partial
failures
Remarks
 United Kingdom3210
 Soviet Union63331911
 United States132821634

By rocket

Rocket Country Launches Successes Failures Partial failures Remarks
V-2 United States72371520Maiden flight
Bumper United States8206Maiden flight
Viking (first model) United States6213Maiden flight
Aerobee RTV-N-8 United States171403Maiden flight, retired
Aerobee RTV-N-10 United States4400Maiden flight
Aerobee XASR-SC-1 United States8800Maiden flight
Aerobee XASR-SC-2 United States8800Maiden flight
Aerobee RTV-A-1 United States9702Maiden flight
V-2 United Kingdom3210Maiden flight
V-2 Soviet Union11434Maiden flight, retired
R-1 Soviet Union292207Maiden flight
R-1A Soviet Union6420Maiden flight
R-2 Soviet Union5320Maiden flight

See also

References

  1. Voosen, Paul (24 July 2018). "Outer space may have just gotten a bit closer". Science. doi:10.1126/science.aau8822. Retrieved 1 April 2019.
  2. Louis de Gouyon Matignon. "Peenemünde and the German V-2 rockets". Space Legal Issues. Retrieved 13 December 2020.
  3. Dieter K. Kuzel (1962). Peenemünde to Canaveral. United States of America: Prentice Hall.
  4. Willy Ley (June 1951). Rockets, Missiles, and Space Travel. Dominion of Canada: Viking Press. OCLC 716327624.
  5. Boris Chertok (June 2006). Rockets and People, Volume II: Creating a Rocket Industry. Washington D.C.: NASA. OCLC 946818748.
  6. Milton W. Rosen (1955). The Viking Rocket Story. New York: Harper & Brothers. OCLC 317524549.
  7. George Ludwig (2011). Opening Space Research. Washington D.C.: geopress. OCLC 845256256.
  8. Asif A. Siddiqi. Challenge to Apollo: The Soviet Union and the Space Race, 1945-1974 (PDF). Washington D.C.: NASA. OCLC 1001823253.
  9. Wade, Mark. "R-1A". Retrieved 6 December 2020.
  10. Wade, Mark. "V-2". Retrieved 7 December 2020.
  11. Report on operation 'Backfire' Recording and analysis of the trajectory. 5. Ministry of Supply. January 1946. pp. 9–11.
  12. White, L. D. (September 1952). Final Report,Project Hermes V-2 Missile Program. Schnectady, New York: Guided Missile Department, Aeronautic and Ordnance Systems Division, Defense Products Group, General Electric. p. Table I.
  13. Kennedy, Gregory P. (2009). The Rockets and Missiles of White Sands Proving Ground. Atglen, PA.: Schiffer Publishing, Ltd. p. 159. ISBN 978-0-7643-3251-7.
  14. I have found no evidence that a chemical release experiment was flown. Chemical release is usually done to conduct aeronomy or wind studies.
  15. Smith, Charles P. Jr. (February 1958). Naval Research Laboratory Report No. 4276 Upper Atmospheric Research Report Number XXI, Summary of Upper Atmosphere Rocket Research Firings (pdf). Washington D.C.: Naval Research Laboratory. Retrieved 9 March 2016.
  16. Kennedy list the Agency for this flight as ARDC while White does not as the Air Research and Development Command did not exist until 1950 kennedy may have confused ARDC with the AAF Technical Service Command, the Air Technical Service Command, or the Air Materiel Command.
  17. Newell, H. E. Jr.; Siry, J. W. (30 December 1946). Naval Research Laboratory Report No. R-3030 (pdf). Washington D.C.: Naval Research Laboratory. pp. 11, 91.
  18. Newell, H. E. Jr.; Siry, J. W. (30 December 1946). Naval Research Laboratory Report No. R-3030 (PDF). Washington D.C.: Naval Research Laboratory. p. Table I. Archived from the original (pdf) on 6 September 2017.
  19. Newell, H. E. Jr.; Siry, J. W. (30 December 1946). Naval Research Laboratory Report No. R-3030 Upper Atmospheric Research Report Number II (pdf). Washington D.C.: Naval Research Laboratory. pp. Table I. Retrieved 8 March 2016.
  20. "Part 1: 1900 – 1950". Chronology of Human Space Exploration. I-Spy Space.
  21. Newell & Siry, Neufeld, and Kennedy agree that the launch was on 29 May.
  22. Neufeld, Michael J. (2007). Von Braun, Dreamer of Space, Engineer of War. New York: Vintage Books. p. 239. ISBN 978-0-307-38937-4.
  23. Kennedy, Gregory P. (2009). The Rockets and Missiles of White Sands Proving Ground. Atglen, PA.: Schiffer Publishing, Ltd. p. 57. ISBN 978-0-7643-3251-7.
  24. Wade, Mark. "Kapustin Yar V-2". Retrieved 7 December 2020.
  25. Wade, Mark. "1947". Encyclopedia Astronautica. Archived from the original on 8 November 2013. Retrieved 3 March 2016.
  26. Van Allen, James A. & Townsend, Jr. (1959). "Chapter 4:The Aerobee Rocket". In Newell, Homer E. (ed.). Sounding Rockets. McGraw-Hill Book Company. pp. 61–62.
  27. Wade, Mark. "Aerobee". Retrieved 8 December 2020.
  28. Wade, Mark. "BUMPER-WAC". Retrieved 13 December 2020.
  29. Wade, Mark. "R-1". Retrieved 6 December 2020.
  30. Wade, Mark. "White Sands LC33". Retrieved 7 December 2020.
  31. Wade, Mark. "Viking Sounding Rocket". Retrieved 7 January 2021.
  32. Wade, Mark. "V-2 Chronology". Encyclopedia Astronautica.
  33. Wade, Mark. "R-2E". Retrieved 7 December 2020.
  34. Wade, Mark. "R-2". Retrieved 7 December 2020.
  35. Neufeld, Michael J. (2007). Von Braun, Dreamer of Space, Engineer of War. New York: Vintage Books. p. 249. ISBN 978-0-307-38937-4.
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