# super heavy-lift launch vehicle > orbital launch vehicle capable of lifting very heavy payloads to low-Earth orbit **Wikidata**: [Q23759442](https://www.wikidata.org/wiki/Q23759442) **Wikipedia**: [English](https://en.wikipedia.org/wiki/Super_heavy-lift_launch_vehicle) **Source**: https://4ort.xyz/entity/super-heavy-lift-launch-vehicle ## Summary A super heavy-lift launch vehicle is an orbital launch vehicle designed to carry very heavy payloads into low-Earth orbit, representing the next class of rockets beyond heavy-lift vehicles for extreme payload capacity. ## Key Facts - A super heavy-lift launch vehicle is classified as a rocket class and a subclass of launch vehicle, following the heavy-lift launch vehicle category. - It can lift payloads up to 50,000 kilograms (per NASA) or 100,000 kilograms (per Soviet/Russian programs) to low-Earth orbit. - Notable examples include SpaceX’s Starship, NASA’s Space Launch System, and the Saturn V. - Aliases include SHLLV, 超大型ロケット, and "vehículo de lanzamiento de carga super pesada". - Historical programs like the Soviet Union’s N1 and UR-700 were early super heavy-lift proposals. ## FAQs ### Q: What is the main difference between a super heavy-lift launch vehicle and a heavy-lift one? A: A super heavy-lift launch vehicle can carry heavier payloads (e.g., 50,000–100,000 kg) than a heavy-lift vehicle, designed specifically for extremely heavy loads to low-Earth orbit. ### Q: Which organizations have developed super heavy-lift launch vehicles? A: SpaceX (Starship), NASA (Space Launch System), and historical programs from the Soviet Union (N1, UR-700) and the United States (Saturn V) have developed or proposed super heavy-lift launch vehicles. ### Q: What is the maximum payload capacity of a super heavy-lift launch vehicle? A: Super heavy-lift launch vehicles can lift up to 50,000 kilograms (per NASA) or 100,000 kilograms (per Soviet/Russian programs) to low-Earth orbit, depending on the program. ## Why It Matters Super heavy-lift launch vehicles are critical for advancing space exploration by enabling the deployment of massive payloads—such as large spacecraft, deep-space probes, or components for lunar/planetary bases—that traditional rockets cannot carry. They address the need for higher payload capacity to support ambitious missions like human missions to Mars, large-scale space infrastructure, or scientific instruments requiring significant mass. This class of rockets represents a technological leap in space transportation, reducing reliance on multiple launches for heavy payloads and lowering overall mission costs through more efficient, single-stage or reusable designs (e.g., SpaceX’s Starship). ## Notable For - **Payload Records**: Capable of lifting heavier payloads than previous heavy-lift vehicles, setting new standards for orbital payload capacity. - **Historical Firsts**: The Saturn V was a human-rated super heavy-lift vehicle that enabled the Apollo moon landings, marking a pivotal moment in space exploration. - **Reusable Innovation**: SpaceX’s Starship is a reusable super heavy-lift vehicle, aiming to reduce launch costs and enable frequent access to space. - **Soviet Ambitions**: Programs like the N1 and UR-700 reflected the Soviet Union’s early efforts to compete in heavy-lift capabilities, though the N1 never flew. ## Body ### Definition and Classification A super heavy-lift launch vehicle is an orbital launch vehicle designed to carry very heavy payloads to low-Earth orbit. It belongs to the rocket class and is a subclass of launch vehicles, following the heavy-lift launch vehicle category. This classification distinguishes it as the next tier of rockets optimized for extreme payload capacity, beyond what heavy-lift vehicles can achieve. ### Payload Capacity The payload mass for super heavy-lift launch vehicles varies by program. For example, NASA’s Space Launch System is designed to lift up to 50,000 kilograms to low-Earth orbit, while Soviet/Russian programs like the N1 aimed for 100,000 kilograms. These capacities are critical for missions requiring large spacecraft, such as interplanetary probes or modular space stations. ### Notable Examples Key examples of super heavy-lift launch vehicles include: - **SpaceX Starship**: A reusable, sea-launched rocket concept (though not yet operational) designed to carry up to 100 metric tons to orbit. - **Space Launch System (SLS)**: NASA’s expendable super heavy-lift vehicle, used for missions like the Artemis program to return humans to the Moon. - **Saturn V**: A human-rated vehicle that launched the Apollo missions to the Moon, with a payload capacity of over 100,000 kilograms to low-Earth orbit. - **N1**: A Soviet super heavy-lift vehicle intended for lunar missions, though it failed its first launch attempt in 1969. ### Historical Development The concept of super heavy-lift launch vehicles emerged as space programs sought to transport heavier payloads for deep-space exploration. Early examples include the Saturn C-8 (a proposed larger Saturn rocket) and the 1962 Sea Dragon concept (a reusable, sea-launched rocket). Soviet programs like the UR-700 (proposed in 1968) and N1 (inception 1963) reflected Cold War-era ambitions to outpace U.S. capabilities. Today, SpaceX’s Starship and NASA’s SLS represent modern efforts to advance this technology. ### Technical Characteristics Super heavy-lift launch vehicles typically feature multiple stages, powerful engines, and large fuel tanks to generate sufficient thrust for heavy payloads. They may also incorporate reusable components (e.g., Starship’s Raptor engines) to reduce operational costs. The design prioritizes structural strength to withstand the stresses of launching massive payloads, making them the most powerful rockets in current or historical use. ```json { "@context": "https://schema.org", "@type": "Thing", "name": "Super heavy-lift launch vehicle", "description": "Orbital launch vehicle capable of lifting very heavy payloads to low-Earth orbit", "sameAs": ["https://www.wikidata.org/wiki/Q3455433", "https://en.wikipedia.org/wiki/Super_heavy-lift_launch_vehicle"] } ## References 1. [Source](https://www.nasa.gov/pdf/500393main_TA01-LaunchPropulsion-DRAFT-Nov2010-A.pdf) 2. [Source](https://bigenc.ru/technology_and_technique/text/3492657)