Edge Rewrite
// request.cf · coarse context

A page that knows where it met you.

Only coarse request metadata is shown. This demo does not display or persist visitor IP addresses.

Country
US
Cloudflare location
CMH
Connection
HTTP/2
Language
Not provided

Ray ID: a3ff35956b2d89da

Jump to content

MAPHEUS

From Wikipedia, the free encyclopedia

Mapheus is a German sounding rocket programme run by the German Aerospace Center (DLR) since 2009.[1][2] It is a research platform for experiments in weightlessness (microgravity) run by the DLR Institute of Frontier Materials on Earth and in Space, the DLR Institute of Aerospace Medicine, and the DLR Mobile Rocket Basis MORABA. Each sub-orbital flight provides about 6 minutes of weightlessness conditions for research and technology development.[3] Launches are roughly annually from the Esrange Space Center run by SSC Space.

MAPHEUS is one of the European microgravity-research rocket programs, similar to the TEXUS or MASER/SubOrbital Express programs of the German and European space agencies (DLR and ESA). It currently focuses on research from materials physics and life sciences, and also serves as a technology test platform for the development and qualification of new sounding rocket vehicles and service systems. The DLR institutes develop and build the majority of the payload, often in collaboration with universities and other research centers.

Missions

[edit]

MAPHEUS 1–4 (2009–2013)

[edit]

The first four launches of MAPHEUS were based on a two-stage Nike/Improved Orion vehicle, supporting payload with 14" diameter of around 190kg weight for flights up to around 150km height.[4][5]

MAPHEUS 5–8 (2015–2019)

[edit]

With MAPHEUS 5, there was a switch to the VSB-30 two-stage vehicle and larger 17" payload, supporting heavier payloads for flights up to around 250km height. For MAPHEUS 7, the S-31 engine booster of the VSB-30 was combined with an Improved Malemute as the second stage.

MAPHEUS 9–13 (2021–2023)

[edit]

To establish an alternative to the VSB-30 vehicle, after MAPHEUS 8 a switch was performed to a two-stage Imroved Malemute (IM-IM) vehicle, using military surplus motors.

Due to restrictions posed by the COVID-19 pandemic and due to inavailability of the Skylark launcher on Esrange, the launches of MAPHEUS 9/10 were postponed to 2021/2022, and MAPHEUS 11 was launched in 2021 with a much reduced experiment team. All IM-IM launches for MAPHEUS used the MAN launcher on Esrange.

MAPHEUS 14– (2024–)

[edit]

The launch of MAPHEUS 14 saw the first production use of RED KITE, a new sounding rocket motor produced by Bayern-Chemie and developed in cooperation with German Aerospace Center. MAPHEUS 15 demonstrated a flight to over 300km height, providing more than 7 minutes of time in weightlessness for more than 20 different experiments. It was also the 600th rocket launched from Esrange Space Center.[6] MAPHEUS 16 was the first use of a two-stage RED KITE vehicle, allowing for a substantial increase in payload mass compared to earlier vehicles. This motor combination was later also used for the MASER-17 flight.

List of MAPHEUS launches

[edit]
name launch date vehicle apogee total payload mass
MAPHEUS 1 May 22, 2009 Nike/Improved Orion 141km 198kg
MAPHEUS 2 Oct 27, 2010 Nike/Improved Orion 153km 178kg
MAPHEUS 3 Nov 25, 2012 Nike/Improved Orion 145km 195kg
MAPHEUS 4 Jul 15, 2013 S-30 154km 267kg
MAPHEUS 5 Jun 30, 2015 VSB-30 253km 408kg
MAPHEUS 6 May 14, 2017 VSB-30 254km 403kg
MAPHEUS 7 Feb 17, 2018 S-31/Improved Malemute 248km 365kg
MAPHEUS 8 Jun 13, 2019 VSB-30 238km 379kg
MAPHEUS 11 May 24, 2021 IM/IM 221km 370kg
MAPHEUS 10 Dec 6, 2021 IM/IM 259km 310kg
MAPHEUS 9 Jan 29, 2022< IM/IM 253km 328kg
MAPHEUS 12 Oct 21, 2022 IM/IM 258km 313kg
MAPHEUS 13 May 22, 2023 IM/IM 230km 361kg
MAPHEUS 14 Feb 27, 2024 RED KITE/IM 265km 426kg
MAPHEUS 15 Nov 11, 2024 RED KITE/IM 309km 361kg
MAPHEUS 16 Nov 12, 2025 RED KITE/RED KITE 267km 475kg

Scientific experiments

[edit]

Microgravity experiments carried out on MAPHEUS vary from materials science to biology. Examples include additive manufacturing developing a gravity-independent powder bed fusion process,[7] experiments on granular matter,[8] research on the solidification of metallic alloy melts,[9] technology testing for solar cell materials,[10] fundamental research on colloidal active matter,[11] and on the properties of bio-membranes of vesicles as minimalistic biophysical models of cells and for pharmacodynamics.[12]

See also

[edit]

References

[edit]
  1. "MAPHEUS®". German Aerospace Center. Retrieved 2026-02-24.
  2. "MAPHEUS - Materialforschung unter Schwerelosigkeit". German Aerospace Center. Retrieved 2024-02-24.
  3. Kargl, Florian, ed. (2019). "Materials and Life Science Experiments for the Sounding Rocket MAPHEUS". Review of Scientific Instruments. American Institute of Physics. Retrieved 2024-02-24.
  4. Stamminger A, et al. "MAPHEUS-1: Vehicle, Subsystem Design, Flight Performance and Experiments". Proceedings of the 19th ESA Symposium on European Rocket and Balloon Programmes and Related Research. European Space Agency. pp. 411–416. Retrieved 2025-01-22.
  5. Siegl M, et al. "Material Physics Rockets MAPHEUS-3/4: Flights and Developments". Proceedings of the 21st ESA Symposium on European Rocket and Balloon Programmes and Related Research. European Space Agency. p. 721. Retrieved 2025-01-22.
  6. "600th rocket launched from Esrange". 2024-11-11. Retrieved 2026-08-22.
  7. Neumann C, et al. (2023). "Additive manufacturing of metallic glass from powder in space". npj Microgravity. 9: 80. doi:10.1038/s41526-023-00327-7.
  8. Yu P, et al. (2020). "Velocity Distribution of a Homogeneously Cooling Granular Gas". Physical Review Letters. 124 208007. arXiv:2005.04610. doi:10.1103/PhysRevLett.124.208007.
  9. Reinhart G, et al. (2023). "In-situ X-ray monitoring of solidification and related processes of metal alloys". npj Microgravity. 9: 70. doi:10.1038/s41526-023-00321-z. hdl:11250/3112115.
  10. Reb LK, et al. (2023). "Space- and Post-Flight Characterizations of Perovskite and Organic Solar Cells". Solar RRL. 7 2300043. doi:10.1002/solr.202300043.
  11. Keßler R, et al. (2020). "Direct-imaging of light-driven colloidal Janus particles in weightlessness". Review of Scientific Instruments. 91: 013902. doi:10.1063/1.5124895.
  12. Kohn F, et al. (2019). "The gravity dependence of pharmacodynamics: the integration of lidocaine into membranes in microgravity". npj Microgravity. 5: 5. doi:10.1038/s41526-019-0064-5. PMC 6403312.
[edit]