Volcanoes Session. Chairs: Y. Fukushima & G. Puglisi

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Transcription:

Volcanoes Session Chairs: Y. Fukushima & G. Puglisi

Presentation Summary We had presentations on volcanoes all over the world, more than the last FRINGE workshops: Etna, Campi Flegrei, Ethiopian rift, Kilauea, Galapagos, Miyakejima, North Central South America, Sunda arc (Indonesia), Eyjafjallajokull, Piton de la Fournaise, Saudi Arabia. Many studies investigated the internal process and proposed models for the physics of volcanoes. These studies benefited from large amount of data of good quality. Examples: behavior of deep magma body (Fialko), regional characterics (Biggs, Chaussard, Ebmeier), very high resolution in time and space(many). New science!

Seed Questions 1. What recommendations does this thematic community have for Sentinel 1 observation scenarios over InSAR areas of interest, in terms of revisit frequency and pass (ascending / descending)? Basically as simple as possible, asc + desc, every pass on volcanic regions. Volcanoes often have steep slopes, and asc + desc would be important. If any anomaly such as seismic swarms is identified and a future eruption is anticipated, high priority should be put in acquiring as much data as possible. The characteristics of the TOPS acquisition should be investigated, in particular on the possible phase ramp due to mis coregistration. Experiments with TSX and simulation studies are highly desirable.

2. How are we moving toward an effective global monitoring of volcanoes using InSAR? Systematic investigation along entire arcs has been shown to be possible (note: L band data are used) We are technically ready for this monitoring, so we can perhaps start to think about operational monitoring (who and how). (indivisual countries/international organization, data transfer, result communication)

3. What are the advances in mitigation of atmospheric noise since 2009 and what are the promising ways to proceed? Things are improving, climate models work well in many cases (of course there are exceptions; local anomalies). So far there is no definitive edition of the method. 4. What about the integration between SAR and in situ (geodetic) data sets? GPS data are effectively used to compare with InSAR time series results, and it has been shown that InSAR and GPS displacements can be integrated to get 3D displacement field. (getting in situ data is closely related to Supersites)

5. Since 2009 the SAR systems with high spatial or temporal resolution (X band missions, high revisit time) have been improved (i.e. launch of TanDEM X, on 2010, completion of CosmoSkyMed constellation, on mid 2010). Which are the effects of this improvements on the study and monitoring of volcanic (and tectonic?) areas, according the experiences of the scientific community? And what are those expected? Access to X,C,L band data gives a large impact. Some volcanoes such as those included as Supersites benefit from this situation. However, there are many other volcanoes that cannot merit from these data. It is nice if the space agencies can program background missions for science on those active volcanoes. This requires negotiation with space agencies (ASI).

6. What are the new InSAR findings in volcanological studies since FRINGE 2009? Much more comprehensive studies have been done using more data from more sensors, on much wider area on the Earth. 7. Operation of ALOS has been terminated and usage of ERS2/ENVISAT data is limited. In this period of time, can we make further actions to facilitate getting data acquired by other satellites? 8. Has there been recent developments in methodology that are useful for studying volcano studies? If so, how can we promote using such techniques? These questions were not discussed; same situation as earthquakes and tectonics

Recommendations Sentinel 1 data acquisition We want high revisit frequency on volcanic regions, homogeneous acquisitions over such regions (e.g. the whole volcanic arc) is desirable. Priority is in two look directions, ascending and descending. This is because of steep slopes (layover etc) and the nature of volcanic deformation (unknown source type, geometry ) Make sure that the acquisitions are not missed in case some signs of possible future eruption, such as increase in seismicity, are found (users are partly responsible for this). Acquisitions in addition to background mission are desired if there is no conflict. Characteristics of interferograms from TOPS mode data should be investigated as this could be a major error source.

Recommendations Toward global monitoring Timeliness of data availability and ease of data downloading are highly desirable. This may be sufficient as ESA s responsibility. Do we expect more?