History of the Iranian Space Program

Key Takeaways

• Iran became the ninth nation to independently launch a satellite in 2009, using domestically built technology
• The program operates on two parallel tracks: a civilian agency and an IRGC military space division
• Russia has emerged as Iran’s primary space partner, launching multiple Iranian satellites from 2024 onward

From Antiquity to Ambition

Iran’s relationship with the cosmos predates its modern space program by centuries. Persian astronomers made significant contributions to celestial observation long before rockets existed, and the country’s modern scientific traditions built on that legacy throughout the twentieth century. What began as a modest engagement with satellite communications technology in the early 1960s eventually became one of the developing world’s most active and most scrutinized space programs.

The contemporary story starts in 1960, when Iran became a member of the International Satellite Communications Organization and installed a standard-A antenna in Asadabad, Hamedan. That single antenna gave Iran access to global satellite communications and, more importantly, demonstrated to Iranian planners that space-based infrastructure had real practical value. By 1974, following the United States’ launch of the first Earth Resources Survey satellite, which would later become the Landsat series, Iran established a Satellite Data Collection Office to systematically exploit remote sensing data for domestic planning purposes. These were administrative steps, not engineering achievements, but they planted the institutional seeds that would eventually bear far more ambitious fruit.

The 1979 Islamic Revolution fundamentally disrupted every major scientific institution in the country. Thousands of trained engineers and scientists emigrated, universities were closed temporarily, and the new government’s immediate priorities centered on consolidating power and managing the devastating Iran-Iraq War, which consumed most of the 1980s. Space technology was effectively shelved. What the revolution did accomplish was embedding a fierce philosophy of self-reliance (esteqlal ) into the DNA of every subsequent Iranian government program. That ideology of technological independence, often explicitly framed as a defiant response to Western sanctions and political isolation, would become the defining characteristic of the Iranian space effort as it rebuilt itself across the 1990s and 2000s.

Building the Foundation

The institutional scaffolding of Iran’s modern space program went up gradually through the 1990s and early 2000s. In 1998, the Iranian government established the Iranian Space Research Center (ISRC), which became the central body for coordinating domestic aerospace research. The Iranian Space Agency (ISA) itself wasn’t formally authorized until late 2003, with its official establishment following in February 2004. That same year, Iran created a Supreme Space Council chaired by the sitting president and overseen by the Ministry of Communications and Information Technology, giving space policy the kind of high-level political visibility that signaled serious long-term investment.

These early institutional years weren’t idle. Iranian engineers and scientists were actively building knowledge, often through partnerships that the country’s later isolation would make difficult to sustain. The most tangible early product of this period was Sina-1, a 170-kilogram remote sensing satellite built with significant Russian assistance. Sina-1 launched aboard a Russian Kosmos-3M booster from the Plesetsk Cosmodrome in October 2005, not an indigenous launch by any stretch, but Iran’s first satellite in orbit. The spacecraft was developed jointly between Iranian institutions and Russia’s NPO Polyot, giving Iranian engineers their first exposure to real satellite engineering at an operational level.

The Zohreh communications satellite was also developed during this period as a joint Iranian-Russian project, though its path to orbit would prove far longer and more complicated than Sina-1’s. The early reliance on Russian cooperation wasn’t just pragmatic. It was also politically coherent. Russia and Iran shared an interest in pushing back against American dominance of post-Cold War international institutions, and space cooperation served both countries’ diplomatic and strategic interests.

The Kavoshgar Rockets and the Road to Orbit

By the mid-2000s, Iran’s engineers had set their sights on something far more ambitious than foreign-launched satellites: an indigenous orbital launch capability. The development of a domestic space launch vehicle required mastering two-stage liquid-propellant rocketry, guidance systems, range safety infrastructure, and a dozen other disciplines. Iran’s path ran directly through its existing ballistic missile technology, particularly the Shahab-3 medium-range ballistic missile, which itself drew heavily on North Korean Nodong-1 designs.

The first tangible proof of progress came on February 4, 2008, when Iran launched the Kavoshgar-1 (Explorer-1) sounding rocket from the Semnan region, reaching an altitude of roughly 200 to 250 kilometers. The flight carried atmospheric measurement instruments and marked the first time an Iranian rocket had crossed the boundary of outer space. President Mahmoud Ahmadinejad announced the Semnan launch complex publicly the same day, giving international observers their first detailed look at what had been a largely clandestine infrastructure program.

Six months later, on August 17, 2008, Iran conducted what it described as a test launch of the Safir satellite launch vehicle, the rocket Iran had built specifically to place satellites in orbit. The launch put a dummy satellite on a suborbital trajectory. American officials assessed that the vehicle had failed to reach its intended position, while Iranian officials claimed a partial success. The ambiguity surrounding that August test reflected a pattern that would recur throughout the program’s history: Iran announcing achievements, Western governments disputing them, and the truth lying somewhere in between.

The ambiguity evaporated on February 2, 2009. That day, timed to coincide with the 30th anniversary of the Islamic Revolution, a Safir rocket lifted off from the Semnan Space Center and placed the Omid satellite into low Earth orbit. Omid, whose name translates as “Hope” in Persian, was a modest spacecraft: a roughly 27-kilogram cube measuring about 40 centimeters per side, designed primarily to test store-and-forward communications in the UHF band. It wasn’t a sophisticated satellite by any measure. But it was real, it was Iranian-built, and it was in orbit on an Iranian rocket. The launch made Iran the ninth nation in history to independently develop and use its own launch vehicle to place a satellite in orbit. Omid completed more than 700 orbits over approximately seven weeks before atmospheric drag brought it back down on April 25, 2009.

The Safir Years: Early Successes and Limits

The Safir rocket, whose name means “Ambassador” in Persian, was a two-stage liquid-propellant vehicle roughly 22 meters long and 1.4 meters in diameter. Its first stage derived directly from the Shahab-3 missile, while its second stage used an indigenously designed propulsion system whose details Iran declined to share publicly, a decision that Western analysts took as evidence of the second stage’s military relevance. The Safir could place payloads of up to about 50 kilograms into a low elliptical orbit, which significantly constrained the types of satellites Iran could build and operate.

The program’s next success came on June 15, 2011, with the launch of Rasad-1 (Observation), Iran’s first imaging satellite. Weighing just 15 kilograms, Rasad-1 carried a camera capable of producing imagery with 150-meter resolution, low by commercial standards but a real step beyond Omid’s communications focus. The satellite operated for only about three weeks before its orbit decayed sufficiently to cause re-entry on July 6, 2011. The short lifespan reflected the inherent limitations of the small, inexpensive satellites Iran could build and the low orbits the Safir could reach.

February 3, 2012 brought the launch of Navid-e Elm-o Sanat, also called Ya Mahdi, a 50-kilogram experimental satellite built largely by Iranian university students for testing camera and telecommunications equipment. The spacecraft had a store-and-dump capability and a camera with roughly 400-meter resolution. These early satellite missions weren’t operationally significant in any military or commercial sense, but they gave hundreds of Iranian engineers real hands-on experience with every phase of satellite development, from design and fabrication through launch and on-orbit operations.

Iran’s Fajr satellite launched on February 2, 2015, represented a meaningful technical step. Fajr incorporated a propulsion system that allowed it to perform orbital maneuvers, a capability none of Iran’s previous satellites had possessed. The satellite weighed about 52 kilograms and reached a circular 224-kilometer orbit. While its lifespan was short, the inclusion of an onboard propulsion system signaled that Iranian satellite engineers were moving beyond basic bus designs toward more capable spacecraft.

Animals, Ambition, and the Biological Program

Parallel to its satellite launches, Iran developed a biological spaceflight program that it positioned as a precursor to eventual human spaceflight. The program operated through the Kavoshgar series of sounding rockets, which were suborbital vehicles capable of reaching altitudes in the 100-to-200-kilometer range and returning payloads to Earth via parachute.

On February 3, 2010, the Kavoshgar-3 rocket carried one rodent, two turtles, and several worms into suborbital space and returned them alive, making Iran the sixth country in history to send animals to space and recover them. The mission transmitted live video from the biological capsule back to the ground, a demonstration of telemetry capabilities as much as a biological experiment. Kavoshgar-4 followed in March 2011, this time carrying a capsule designed to carry a monkey, though without a live primate aboard. The purpose was to validate the capsule’s environmental systems.

Iran’s most publicly visible biological mission came in January 2013, when the Kavoshgar-5 rocket launched a live monkey named Aftab into suborbital space, reaching an altitude of approximately 120 kilometers and returning the animal alive about 20 minutes later. The mission generated significant international coverage and skepticism in roughly equal measure. Iranian officials released photographs of what they said was Aftab before and after the flight, but observers noted apparent differences in the monkey’s appearance across the images, fueling accusations that the pictures had been manipulated. Iranian authorities denied the allegations.

A second monkey mission followed in December 2013, with the Kavoshgar-6 rocket reaching a similar altitude and returning its primate passenger safely. Then, on December 6, 2023, Iran used a rocket called Salman to launch a new biological capsule called Kavous, a human-rated-style spacecraft that Iranian officials described as a precursor to crewed operations. The Kavous capsule weighed approximately 500 kilograms, substantially heavier than any Iranian satellite or capsule previously launched, and its dimensions exceeded those of all existing Iranian orbital vehicles, signaling that it was designed for suborbital testing ahead of a future crewed system.

The Simorgh and the Struggle for Heavier Lift

The Safir’s payload limitations made it clear early on that Iran needed a larger launch vehicle. President Ahmadinejad announced the Simorgh (meaning “Phoenix” in Persian) on February 3, 2010, as part of celebrations marking Omid’s first anniversary. The Simorgh was designed as a two-stage, liquid-fueled rocket capable of placing payloads of up to 250 kilograms into a 500-kilometer circular orbit. At 26.5 meters long with a launch mass of approximately 87 tonnes, it dwarfed the Safir in scale. Its first stage clustered four Safir-1B engines together, with four additional vernier engines for attitude control, generating a combined liftoff thrust of around 162,000 kilograms-force.

The Simorgh’s development proved slower and more difficult than Iran’s officials suggested it would be. The first launch didn’t occur until April 19, 2016, six years after the announcement, and that flight was assessed by international observers as either a suborbital test or a failure, depending on whose analysis one accepted. A second launch in July 2017 appears to have ended in a catastrophic failure, likely an explosion before the vehicle reached space. U.S. Strategic Command confirmed no satellite had deployed. Iran acknowledged neither the launches nor the failures.

Further Simorgh attempts in 2019 and 2020 ended without achieving orbit. Analysts pointed to the overcomplexity of the rocket’s turbopump architecture as a persistent source of reliability problems. The first successful Simorgh orbital mission didn’t occur until June 2022, when the rocket placed the small Khayyam research satellite into orbit, though that mission was actually a Russian-built spacecraft launched via Russia’s Soyuz rocket, not the Simorgh. The Simorgh’s first confirmed success placing Iranian satellites into orbit came on January 28, 2024, when a single Simorgh carried three satellites (Mehda, Kayhan-2, and Hatef-1) simultaneously into a 450-kilometer orbit. It was the first time an Iranian rocket had placed multiple payloads into orbit simultaneously.

The IRGC’s Parallel Space Program

The civilian Iranian Space Agency doesn’t tell the whole story. Starting around 2019, the Islamic Revolutionary Guard Corps (IRGC) began operating what amounted to a shadow space program, developing its own rockets and satellites entirely outside the ISA’s institutional framework. The existence of this parallel military space effort only became publicly known on April 22, 2020, when the IRGC launched the Noor-1 satellite into a 425-kilometer orbit using a previously undisclosed three-stage rocket called Qased (“Messenger” in Persian).

The Noor launch was strategically timed to the anniversary of the IRGC’s founding and came with no advance notice; Iranian officials only announced the mission after the satellite was confirmed in orbit. The Qased rocket used a liquid-fueled first stage derived from Shahab-3 technology topped with a solid-fueled second stage named Salman and a small third stage, also solid-fueled. The launch site was not the ISA’s Imam Khomeini Spaceport at Semnan but a missile test facility near Shahroud in northeastern Iran, further highlighting the IRGC operation’s military character.

U.S. Secretary of State Mike Pompeo condemned the launch, and General John Hyten, then vice chairman of the Joint Chiefs of Staff, raised concerns about the Qased’s range implications. Space Force General John Raymond dismissed Noor-1 itself as essentially a low-capability imaging device, but the broader concern wasn’t about Noor-1’s individual capabilities. It was about what the Qased’s existence implied about Iran’s ability to develop increasingly capable ballistic missiles under the cover of satellite launches.

Noor-2 followed on March 8, 2022, reaching a 500-kilometer orbit with a reported imaging resolution of 12 to 15 meters. The satellite’s operators released an image of the U.S. Navy’s Fifth Fleet base in Bahrain in May 2022, a pointed demonstration of what the system could observe. Noor-3 launched on September 27, 2023, reaching a 450-kilometer orbit and carrying what IRGC commanders described as improved imaging equipment. All three Noor satellites were placed in orbit by Qased rockets launched from the Shahroud facility. The UK and the EU responded to the expanding IRGC space program by sanctioning Brigadier General Ali Jafarabadi, who leads the IRGC’s space division. The UK went further and sanctioned the Iranian Space Agency itself.

The question of whether the IRGC’s space program violates UN Security Council Resolution 2231 (which calls on Iran to refrain from activities related to ballistic missiles capable of delivering nuclear warheads) divides the international community along predictable lines. The United States, United Kingdom, and France argue that the Qased rocket’s technology is directly applicable to nuclear-capable missiles. Russia and China maintain that Iran has a sovereign right to pursue space activities. Iran itself insists the entire program is peaceful.

Zuljanah and the Solid-Fuel Push

Alongside the Simorgh and the IRGC’s Qased, Iran has been developing a third orbital launch vehicle called Zuljanah, a three-stage rocket that combines a large solid-propellant first stage with liquid-fueled upper stages. This hybrid approach was significant because it demonstrated Iran’s growing mastery of solid-propellant rocket motor technology, which offers key operational advantages over liquid-fueled systems, particularly the ability to store fueled rockets for extended periods without the logistical burden of cryogenic or storable propellants.

Zuljanah conducted its first test launch in February 2021, described by Iran as a suborbital test. A second suborbital flight followed in 2022. The rocket is assessed as capable of placing payloads into sun-synchronous orbit from the Chabahar spaceport once that facility reaches operational capability, making it a potential workhorse for Iranian Earth observation missions. The solid first stage in particular draws Western concern, as solid-fueled rocket motors of that scale have direct military applications.

Russia as a Strategic Partner

Iran’s relationship with Russia in space has evolved significantly over the past decade, shifting from episodic technical cooperation to something approaching a structured partnership. The Khayyam satellite, launched by Russia’s Soyuz rocket from the Baikonur Cosmodrome in August 2022, marked one inflection point. While the satellite was Russian-built, it operated under Iranian direction and was used, according to various assessments, for Earth observation with capabilities that exceeded what Iranian-built satellites had achieved.

The partnership deepened substantially in 2024. On February 29, 2024, a Russian Soyuz rocket launched Pars-1 from the Vostochny Cosmodrome, a 134-kilogram Iranian-built remote sensing satellite equipped with three cameras and deployed into a 500-kilometer orbit. Pars-1 was built by Iranian engineers and represented a step up in both mass and capability compared to earlier Iranian-built satellites. On September 14, 2024, Iran successfully launched Chamran-1, a 60-kilogram research satellite built by Iran Electronic Industries, using the indigenous Qaim-100 carrier rocket.

The collaboration with Russia continued intensifying. On July 25, 2025, a Russian Soyuz-2-1b rocket launched Iran’s Nahid-2 telecommunications satellite, a 110-kilogram spacecraft with a three-axis control system and an onboard propulsion system for orbital adjustments, into a 500-kilometer orbit. Nahid-2 was designed for a service life of two to five years. And on December 28, 2025, a Soyuz rocket launched three Iranian-built satellites simultaneously into low Earth orbit from the Vostochny Cosmodrome: Zafar-2, Paya, and Kowsar, all developed by Iranian institutions.

The Russia-Iran space partnership can’t be fully separated from the broader geopolitical alignment between the two countries that solidified after Russia’s 2022 invasion of Ukraine. Iran supplied Russia with Shahed-series drones used in the conflict, and Russian space expertise and launch infrastructure have flowed in the other direction. Western governments see this as a sanctions-busting arrangement that allows both parties to advance military-relevant technologies under the cover of civilian space cooperation.

Launch Infrastructure Expansion

Iran operates three main space launch facilities as of early 2026, each serving distinct functions and managed by different institutional actors. The oldest and most established is the Semnan Space Center, also known as the Imam Khomeini Spaceport, located roughly 50 kilometers southeast of the city of Semnan in north-central Iran. Iran inaugurated this facility in 2008 and has expanded it significantly since, adding a larger launch pad for the Simorgh in the 2010s. The Semnan complex is managed by the ISA and serves as the primary site for civilian satellite launches.

The second facility is the Shahroud Space Center, located in the northeastern desert region of Shahroud and managed by the IRGC’s aerospace division. This is the launch site used for all Qased rocket missions carrying the Noor military satellites. It’s a missile test facility adapted for orbital launches, which reflects the IRGC’s preference for maintaining operational separation from the civilian space program.

The third and most ambitious facility is the Chabahar Space Base, located in the southeastern province of Sistan-Baluchestan, approximately 65 kilometers southeast of the city of Chabahar on the Gulf of Oman. Iran first announced plans for a Chabahar launch facility in 2010 but construction proceeded slowly and its precise location wasn’t independently confirmed until May 2024, when researchers at the James Martin Center for Nonproliferation Studies identified it in commercial satellite imagery.

Chabahar’s geographical advantages are substantial. Its lower latitude relative to Semnan means rockets launched from there can carry heavier payloads into certain orbits by exploiting more of Earth’s rotational velocity. It also offers safer launch corridors over the Indian Ocean. The first phase of the Chabahar base, designed to support solid-propellant launches, was reportedly approximately 93 percent complete by late 2025. Iranian officials stated that the first phase would enable launches to sun-synchronous orbit, while subsequent phases would accommodate the liquid-propellant Sarir and Soroush rockets that Iran has yet to develop fully.

Iran has also announced two additional future spaceport sites, Salmas and Chenaran, though these remain at early planning stages. Their development timelines have not been formally confirmed, and construction has not been independently verified as of early 2026.

The Human Spaceflight Question

Iran’s stated ambitions extend well beyond satellites and launch vehicles. Officials have discussed human spaceflight since at least the early 2000s, when the Aerospace Research Institute reportedly began a bioastronautical program in 2002 following a strategic agreement between the Ministries of Science and Defense. Public announcements of crewed mission timelines have consistently run ahead of Iran’s actual technical capabilities, with targets slipping repeatedly.

By 2008, officials were publicly stating plans to send astronauts on suborbital missions by 2019. That target slipped to 2025, then was effectively deferred when the government chose to prioritize satellite launches and cut human spaceflight spending. The December 2023 launch of the Kavous capsule on the Salman rocket represented a resumption of the bioastronautical development path, even if the mission itself carried no crew. Iranian officials described Kavous as a step in a staged development process.

Iran is also developing more powerful launch vehicles to support future crewed missions. The Sarir rocket, reportedly designed to carry around 1.5 tonnes to low Earth orbit, is described as an initial step toward geostationary orbit capability and is concurrently positioned as a potential crewed launch vehicle. Initial test flights carrying cargo were penciled in for 2025 or 2026, though those timelines have often proven optimistic in the Iranian context. The even larger Soroush rocket family, targeting payloads of up to 15 tonnes, represents Iran’s stated pathway to full orbital crewed missions, with operational capability forecasted for around 2028 to 2029. Iranian officials have spoken of becoming the fourth country to independently launch a human to space, after the Soviet Union, the United States, and China.

Whether those targets are realistic is an open question. Iran has demonstrated a pattern of setting ambitious dates and missing them by years, but it has also demonstrated real and sustained technical progress. The gap between Iran’s stated human spaceflight ambitions and its current capabilities is large, but it was once similarly large for orbital launch capability, and Iran closed that gap in 2009.

Anousheh Ansari: An Iranian in Space

The first person of Iranian origin to reach space was not launched by an Iranian rocket. Anousheh Ansari, an Iranian-American engineer and entrepreneur, became the first female space tourist and the first Iranian in space when she flew to the International Space Station aboard Soyuz TMA-9 in September 2006, spending approximately 10.9 days in orbit. Ansari traveled as a private spaceflight participant, paying her own way through Space Adventures, and conducted scientific research during her stay.

Ansari’s flight had no formal connection to the Iranian government’s space program, and the Islamic Republic’s relationship with her achievement was characteristically ambiguous. Iranian state media covered it, but the government declined to embrace an Iranian-American woman who had become a successful entrepreneur in the United States as a straightforward symbol of national pride. Nevertheless, her flight remains a real milestone in Iranian space history, regardless of the political complications it carried.

Geopolitics, Sanctions, and the Dual-Use Problem

No honest account of the Iranian space program can sidestep the dual-use problem. The same rocket technology that places satellites in orbit can, with different payloads and trajectories, deliver weapons over intercontinental ranges. Iran has consistently denied that its space launch vehicles are intended as ballistic missiles, but the engineering lineage is transparent: the Safir derives from the Shahab-3, the Simorgh appears to share design heritage with North Korea’s Unha rocket, and the Qased’s solid upper stages demonstrate technologies directly applicable to longer-range ballistic missiles.

Western sanctions have targeted Iran’s space program since at least the mid-2000s, restricting access to foreign components, launch services, and technical expertise. The sanctions haven’t stopped the program. They may in fact have accelerated certain aspects of it, by forcing Iranian engineers to develop domestic alternatives they might otherwise have purchased abroad. ISA head Hassan Salarieh has made exactly this argument publicly, framing sanctions as a driver of indigenous innovation rather than an obstacle to it.

The program’s estimated budget is strikingly small relative to its output. A senior Iranian official reportedly stated in late 2024 that approximately $11 million would be allocated to the space agency. For context, a single commercial satellite can cost tens of millions of dollars. Iran’s ability to operate a program of this scope on such limited official funding has led analysts to suspect that the defense budget subsidizes significant portions of what is nominally civilian space activity, an arrangement that would explain why the ISA’s official budget appears disconnected from its actual capabilities.

The Geostationary Ambition

One of Iran’s most technically demanding near-term space goals is placing a satellite in geostationary orbit, roughly 36,000 kilometers above the equator. Achieving this requires substantially more powerful launch vehicles than anything currently operational in Iran’s arsenal. The Simorgh can reach low Earth orbit with modest payloads; geostationary orbit demands either a much larger rocket or a two-burn upper stage capable of raising a satellite from a low transfer orbit to geostationary altitude.

Iran’s defense ministry has been developing the Sarir rocket specifically as the first step toward geostationary capability, reportedly capable of lifting approximately 1.5 tonnes to low Earth orbit with an upper-stage transfer module to deliver payloads into higher orbits. Sarir’s design was described as complete and under construction as of late 2024, with test launches planned. Whether a geostationary-capable Iranian satellite system emerges before the end of the decade will depend heavily on whether Sarir and eventually Soroush can be developed, tested, and made reliable, a process that has taken other space programs many years and many failures.

Iran joining China’s Chang’e-8 lunar mission program in 2024 represents a separate avenue of ambition. Iranian officials stated that Iran had joined the program and would begin construction of an engineering prototype after completing the design phase. Participation in a lunar mission would put Iran in an entirely different category of space-capable nations, though the program’s timelines extend well into the 2030s.

The Shahid Soleimani Constellation

Among the more politically distinctive elements of Iran’s space roadmap is a planned constellation of approximately 20 small internet satellites named after Qassem Soleimani, the IRGC’s Quds Force commander killed in a U.S. drone strike in Baghdad on January 3, 2020. Iranian communications minister Sattar Hashemi stated in late 2025 that launches of light satellites belonging to this constellation were planned using both domestic and foreign launchers.

The Soleimani constellation serves two official purposes: providing internet coverage across Iran and reducing the country’s dependence on foreign satellite communications infrastructure. But Western analysts, including John Sheldon of AstroAnalytica, have noted that a constellation of imaging or communication satellites could also provide significantly enhanced targeting support for Iran’s ballistic missile forces, allowing faster and more precise strike planning. The concern isn’t hypothetical. Modern military operations across every major military power rely on space-based assets for exactly these functions.

A Program in Two Minds

The Iranian space program is, in a meaningful sense, two programs running in parallel. The civilian Iranian Space Agency operates under the Ministry of Communications and Information Technology, pursues internationally recognized scientific objectives, and has cooperated with other nations’ space agencies on various projects. The IRGC’s aerospace division operates a separate launch infrastructure, builds and launches its own satellites, and reports through Iran’s military command structure rather than its civilian government.

These two tracks don’t always move in the same direction. During the presidency of Hassan Rouhani, when Iran was engaged in nuclear negotiations with Western powers from 2014 to 2015, the civilian space program was briefly throttled back to avoid provoking Western governments. The IRGC’s program continued, though its existence wasn’t yet publicly known. The tension between civilian and military space ambitions has never been fully resolved, and it probably can’t be, given how deeply intertwined the two programs’ underlying technologies are.

What seems clear is that both tracks will continue regardless of Iran’s diplomatic situation. The civilian program provides international legitimacy and access to cooperative frameworks. The military program provides operational capabilities that serve the IRGC’s strategic objectives. Both draw on the same pool of Iranian rocket engineers and share engineering lineages that make them technically inseparable even when their institutional structures are kept apart.

Summary

Iran’s space program has traveled a remarkable distance since 2009, when the Safir rocket placed the 27-kilogram Omid satellite into low Earth orbit and earned Iran membership in the small club of nations capable of independent orbital launch. The program has since developed multiple launch vehicles, placed over a dozen satellites in orbit using both indigenous and Russian rockets, and built a military space capability through the IRGC that has generated sustained concern from Western governments.

What the program hasn’t yet done is develop the heavy-lift capacity, geostationary-orbit capability, or crewed spaceflight systems that Iran’s officials have been announcing for years. Those ambitions remain real but unrealized, separated from current capabilities by gaps in rocket power, satellite sophistication, and budget. The partnership with Russia, which has deepened dramatically since 2022, provides one pathway to closing those gaps faster. Whether that pathway remains open as Iran’s geopolitical situation continues to shift, particularly after the military confrontations of 2025 and 2026 that targeted Iranian infrastructure, is a question the program’s future will eventually answer.

The space program’s dual character, simultaneously civilian and military, scientific and strategic, is not unique to Iran. Nearly every major space power has walked a similar line at some point in its history. What makes Iran’s case distinctive is the consistency with which it has pursued independent capability against persistent external resistance, and the degree to which that pursuit has become inseparable from the country’s national identity.

Appendix: Top 10 Questions Answered in This Article

When did Iran first successfully launch a satellite using its own rocket?

Iran achieved its first successful independent satellite launch on February 2, 2009, when a Safir rocket placed the Omid satellite into low Earth orbit. The event made Iran the ninth nation to independently develop and use its own launch vehicle to place a satellite in orbit.

What was the Omid satellite and what did it do?

Omid, meaning “Hope” in Persian, was a 27-kilogram cube-shaped satellite measuring roughly 40 centimeters per side. It carried a UHF store-and-forward communications payload, completed more than 700 orbits over approximately seven weeks, and re-entered Earth’s atmosphere on April 25, 2009.

What is the difference between the Iranian Space Agency and the IRGC’s space program?

The Iranian Space Agency is a civilian body operating under the Ministry of Communications and Information Technology, responsible for officially acknowledged satellite programs and scientific missions. The IRGC’s aerospace division operates a separate military space program using its own rockets, launch facilities, and satellites, most prominently the Noor series launched by Qased rockets.

What is the Noor satellite series and why has it generated international concern?

The Noor satellites are small military Earth-imaging spacecraft operated by the IRGC, launched in April 2020, March 2022, and September 2023. Western governments raised concerns because the Qased rockets used to launch them employ technology closely related to nuclear-capable ballistic missiles, and the satellites themselves enhance Iran’s ability to observe foreign military facilities.

What is the Simorgh rocket and how reliable has it been?

The Simorgh is a two-stage liquid-fueled Iranian rocket capable of placing up to 250 kilograms into a 500-kilometer low Earth orbit. Its development has been marked by significant reliability problems, with multiple failures between its first flight in 2016 and its first confirmed orbital success in January 2024, when it simultaneously placed three satellites into orbit.

Who was the first Iranian to reach space?

Anousheh Ansari, an Iranian-American engineer and entrepreneur, became the first person of Iranian origin to reach space in September 2006 when she flew to the International Space Station aboard Soyuz TMA-9 as a private spaceflight participant, spending approximately 10.9 days in orbit.

What is the Chabahar Space Base and why is it strategically significant?

The Chabahar Space Base is Iran’s third launch facility, located in southeastern Iran near the Gulf of Oman. Its lower latitude provides orbital mechanics advantages over the existing Semnan facility, and its proximity to the Indian Ocean enables safer launch corridors. The first phase was approximately 93 percent complete by late 2025, designed initially to accommodate solid-propellant rockets.

How has Russia contributed to Iran’s space program?

Russia has contributed to Iran’s space program through satellite construction assistance dating to the early 2000s, launch services using Soyuz rockets, and more recently the launch of multiple Iranian-built satellites from Vostochny Cosmodrome in 2024 and 2025. This partnership has deepened significantly since Russia’s 2022 invasion of Ukraine.

What is Iran’s Sarir rocket and what is it intended to achieve?

The Sarir is a heavy-lift rocket under development by Iran’s Defense Ministry designed to place approximately 1.5 tonnes into low Earth orbit and, using an upper-stage transfer module, deliver smaller payloads to geostationary orbit. It represents Iran’s first serious technical step toward the geostationary orbit capability that Iranian space planners have prioritized.

Has Iran sent animals to space?

Iran launched its first biological payload (one rodent, two turtles, and several worms) aboard the Kavoshgar-3 rocket in February 2010, recovering them alive and making Iran the sixth country to send animals to space. Iran subsequently launched live monkeys in January 2013 and December 2013 aboard Kavoshgar-5 and Kavoshgar-6, returning the animals alive from suborbital flights.