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Li, H. Mapping Imaging Spectrometer for Europa. Encyclopedia. Available online: (accessed on 11 December 2023).
Li H. Mapping Imaging Spectrometer for Europa. Encyclopedia. Available at: Accessed December 11, 2023.
Li, Handwiki. "Mapping Imaging Spectrometer for Europa" Encyclopedia, (accessed December 11, 2023).
Li, H.(2022, December 01). Mapping Imaging Spectrometer for Europa. In Encyclopedia.
Li, Handwiki. "Mapping Imaging Spectrometer for Europa." Encyclopedia. Web. 01 December, 2022.
Mapping Imaging Spectrometer for Europa

The Mapping Imaging Spectrometer for Europa (MISE) is an imaging near infrared spectrometer on board the Europa Clipper mission to Jupiter's moon Europa. MISE will examine Europa's surface composition and relate it to the habitability of its internal water ocean.

europa mise habitability

1. Overview

Since NASA's Voyager mission flew past Europa in 1979, scientists have worked to understand the composition of the reddish-brown material known as tholin that coats fractures and other geologically youthful features on Europa's surface.[1] Material from the ocean is probably being transported to the surface by active processes in the interior. At the surface, the material is exposed to the effects of vacuum, temperature, irradiated by solar UV, and bombarded by material entrained in Jupiter's magnetic field, causing photolysis and radiolysis and the transformation and generation of new organic compounds.[2] The compounds at the surface are likely recycled back into the ocean below.[2] Visible to Short Wavelength Infrared (VSWIR) spectroscopy is a well-understood technique for mapping from orbit key inorganic, organic, and volatile compositions on planetary surfaces.

MISE was selected for the Europa Clipper mission in May 2015, and it is built by the JPL in collaboration with the Johns Hopkins University Applied Physics Laboratory (APL). The instrument's Principal Investigator is Diana Blaney.[1]

2. Goal

Intricate pattern of linear fractures on Europa's surface, likely colored by tholins, which are a wide mix of complex organic compounds.

A primary goal of the MISE instrument is to determine if Europa is capable of supporting life by searching for amino acid signatures in the infrared spectra.[3] MISE can distinguish between different types of amino acids, such as isoleucine, leucine, and their enantiomers.[3]

The MISE spectrometer is designed to enable the identification and mapping of organics, salts, acid hydrates, water ice phases, altered silicates, and radiolytic compounds at global (≤ 10 km), regional (≤ 300 m), and local scales (~ 25 m).[4] Distribution maps of astrobiologically relevant compounds and evaluating geological processes can be used to determine if Europa's ocean possesses the chemical energy necessary to support life.[5] MISE could provide fundamental information on where future Europa landers would have the highest probability of detecting organic biosignatures.[4]

3. Description

The MISE design is an imaging infrared spectrometer that could observe effectively throughout a flyby or in orbit around Europa. It is designed to operate within Europa's harsh radiation environment. MISE would cover a spectral range from 0.8 μm to 5 μm (near infrared to mid-infrared), with an instantaneous field of view of 250 μrad/pixel and a swath width of 300 active pixels. The 0.8–2.5 μm region is essential for quantifying hydrates and bulk surface composition, while the 3–5 μm spectral region is required for detecting low abundances of organics, most radiolytic products, and discriminating salts from acid hydrates. Large organic molecules such as tholins have spectral features at 4.57 μm and 3.4 μm.[6] These longer wavelengths can also be used to measure thermal emissions from currently active regions.

The prototype also underwent a planetary protection bakeout to ensure that the design was compatible with dry heat microbial sterilization.[4][5]


  1. "Europa Mission to Probe Magnetic Field and Chemistry". Jet Propulsion Laboratory. 27 May 2015. Retrieved 2017-10-23. 
  2. Blaney, Diana L. (2010). "Europa Composition Using Visible to Short Wavelength Infrared Spectroscopy". JPL (American Astronomical Society, DPS meeting #42, #26.04; Bulletin of the American Astronomical Society, Vol. 42, p.1025). Bibcode: 2010DPS....42.2604B.
  3. MISE: A Search for Organics on Europa. Whalen, Kelly; Lunine, Jonathan I.; Blaney, Diana L. American Astronomical Society, AAS Meeting #229, id.138.04. January 2017.
  4. Mapping Imaging Spectrometer for Europa (MISE) (PDF); D. L. Blaney, R. Clark, J. B. Dalton, A. G. Davies, R. Green, M. Hedman. K. Hibbits, Y. Langevin, J. Lunine, T. McCord, C. Paranicas, S. Murchie, F. Seelos, J. Soderblom, M. Cable, P. Moroulis, Wousik Kim1, L. Dorsky, K. Strohbehn, and Diana. L. Blaney. EPSC Abstracts. Vol. 10, EPSC2015-319, European Planetary Science Congress 2015.
  5. Europa Clipper Mission Concept Preliminary Planetary Protection Approach. Jones, Melissa; Schubert, Wayne; Newlin, Laura; Cooper, Moogega; Chen, Fei; Kazarians, Gayane; Ellyin, Raymond; Vaishampayan, Parag; Crum, Ray. 41st COSPAR Scientific Assembly, July 2016.
  6. The First Akon Europa Penetrator Workshop. The Royal Astronomical Society, January 21, 2016.
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