1 Using the GOES-R AWG Volcanic Ash Algorithm to Track Eyjafjallajökull Volcanic Ash: Impacts on Operations and Research Michael Pavolonis (NOAA/NESDIS/STAR)

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Presentation transcript:

1 Using the GOES-R AWG Volcanic Ash Algorithm to Track Eyjafjallajökull Volcanic Ash: Impacts on Operations and Research Michael Pavolonis (NOAA/NESDIS/STAR) and Justin Sieglaff (CIMSS) Marco Fulle -

2 Topics Introduction to the GOES-R AWG volcanic ash products Eyjafjallajökull background Impact of the GOES-R volcanic ash products on volcanic ash monitoring and modeling Quality assessment Advantages of the geostationary view Looking ahead Summary Marco Fulle -

3 Topics Introduction to the GOES-R AWG volcanic ash products Eyjafjallajökull background Impact of the GOES-R volcanic ash products on volcanic ash monitoring and modeling Quality assessment Advantages of the geostationary view Looking ahead Summary Marco Fulle -

4 The GOES-R Volcanic Ash Products SEVIRI or MODIS can be used to generate the GOES-R products. The GOES-R ash retrieval algorithm is based on the GOES-R cloud height retrieval (same IR based approach). The simultaneous retrieval of ash height, mass loading, and particle size is unique (all other ash algorithms assume a constant cloud height). These products are well suited for assimilation into models since the error estimate for each parameter is objectively determined by the algorithm.

5 The GOES-R Volcanic Ash Products Quantitative ash detection is expressed as an ash confidence. Ash detection results can be overlaid on false color imagery to give the user perspective. The ash detection can be used to provide automated ash alerts. Quantitative Ash Detection

6 The GOES-R Volcanic Ash Products Ash mass loading (ton/km 2 ) is needed to determine if jet engine tolerances are exceeded and to initialize models. If a 1 km cloud thickness is assumed, the mass loading is numerically equivalent to ash concentration in mg/m 3. Ash Mass Loading

7 The GOES-R Volcanic Ash Products The ash cloud top height is critically important for determining if ash is at jetliner cruising altitudes (nowcasting component). In addition, the ash cloud height is a very important parameter for initializing dispersion models (forecasting component). Ash Cloud Height

8 The GOES-R Volcanic Ash Products The ash cloud effective particle radius is not a required product, but it is automatically generated as part of the ash retrieval. Since the effective particle radius is well correlated with ash residence time, we will retain this information in quality flag form. Ash Effective Radius

9 Topics Introduction to the GOES-R AWG volcanic ash products Eyjafjallajökull background Impact of the GOES-R volcanic ash products on volcanic ash monitoring and modeling Quality assessment Advantages of the geostationary view Looking ahead Summary Marco Fulle -

10 Eyjafjallajökull Background Eyjafjallajökull Ash clouds from Iceland have the potential to impact very busy air routes Prata (2008) Eruptions beginning in: 2010, 1821, 1612, ~920 AD, ~550 AD

11 Eyjafjallajökull Eruptions March 20 to April 12, non-ash eruptions, lava fountains April 14 to May 23, mostly explosive ash cloud producing (ash was visible in satellite imagery 32 out of 41 days) Marco Fulle -

12 Eruption Strength The Volcanic Explosivity Index (VEI) for these eruptions was in the range. By comparison, Mt. St. Helens (1980) had a VEI of 5 and Pinatubo (1991) had a VEI of 6. The volcanic clouds were mainly confined to the troposphere and only small amounts of SO 2 were emitted, so these eruptions had little to no climate impact. Marco Fulle -

13 Topics Introduction to the GOES-R AWG volcanic ash products Eyjafjallajökull background Impact of the GOES-R volcanic ash products on volcanic ash monitoring and modeling Quality assessment Advantages of the geostationary view Looking ahead Summary Marco Fulle -

14 April 14: beginning of explosive ash producing eruption. We began regularly distributing the GOES-R ash products to the operational and research community via an list. April 15 - April 23: Significant airspace restrictions over Europe. The GOES-R products show the evolution of the ash cloud and are featured on NOAA web pages. April 19: UK Met Office requests real-time GOES-R volcanic ash products (using SEVIRI). April 22: GOES-R ash products are generated in real-time and displayed on the web. April 21:GE Aviation releases preliminary safe operating threshold. The 2 mg/m 3 threshold is within the GOES-R algorithm sensitivity range. April 20: STAR submits statement on climate impact. The GOES-R products played a role in the assessment. Early Role of the GOES-R Volcanic Ash Products

15 April 14: beginning of explosive ash producing eruption. We began regularly distributing the GOES-R ash products to the operational and research community via an list. April 15 - April 23: Significant airspace restrictions over Europe. The GOES-R products show the evolution of the ash cloud and are featured on NOAA web pages. April 19: UK Met Office requests real-time GOES-R volcanic ash products (using SEVIRI). April 22: GOES-R ash products are generated in real-time and displayed on the web. April 21:GE Aviation releases preliminary safe operating threshold. The 2 mg/m 3 threshold is within the GOES-R algorithm sensitivity range. April 20: STAR submits statement on climate impact. The GOES-R products played a role in the assessment. Early Role of the GOES-R Volcanic Ash Products

16 April 15 - April 20, 2010 We were regularly generating the GOES- R volcanic ash products using SEVIRI and MODIS and distributing them to the operational and research community via an list. The GOES-R ash products were the only timely source of objective satellite derived ash cloud heights, loading, and particle size.

17 April 14: beginning of explosive ash producing eruption. We began regularly distributing the GOES-R ash products to the operational and research community via an list. April 15 - April 23: Significant airspace restrictions over Europe. The GOES-R products show the evolution of the ash cloud and are featured on NOAA web pages. April 19: UK Met Office requests real-time GOES-R volcanic ash products (using SEVIRI). April 22: GOES-R ash products are generated in real-time and displayed on the web. April 21:GE Aviation releases preliminary safe operating threshold. The 2 mg/m 3 threshold is within the GOES-R algorithm sensitivity range. April 20: STAR submits statement on climate impact. The GOES-R products played a role in the assessment. Early Role of the GOES-R Volcanic Ash Products

18 At the request of the UK Met Office (the London VAAC), we began generating the GOES-R ash products in real-time beginning on April 22, 2010.

19 The web site attracted visitors from a wide range of countries. ***The UK Met Office (London VAAC) registered the most hits out of all visitors. The UK Met Office confirmed that they use the products daily. Stan Benjamin’s group has been using the ash heights to initialize the FIM. ~74,000 hits in May 2010, despite being a “hidden” site.

20 Known Users and Data Requests AFWA Airline Pilots Association Aviation Weather Testbed CALIPSO Science Team Deutscher Wetterdienst Remote Sensing Division ESRL (Stan Benjamin’s group) Iceland Met Office Italian Civil Protection MISR Science Team Norwegian Institute for Air Research Norwegian Meteorological Institute UK Met Office University of Alaska - Fairbanks University of Buffalo USGS WMO Marco Fulle - There were also features on NPR, Weather Network TV (Canada), On Wisconsin Magazine, and Physorg.com

21

22 April 14: beginning of explosive ash producing eruption. We began regularly distributing the GOES-R ash products to the operational and research community via an list. April 15 - April 23: Significant airspace restrictions over Europe. The GOES-R products show the evolution of the ash cloud and are featured on NOAA web pages. April 19: UK Met Office requests real-time GOES-R volcanic ash products (using SEVIRI). April 22: GOES-R ash products are generated in real-time and displayed on the web. April 21:GE Aviation releases preliminary safe operating threshold. The 2 mg/m 3 threshold is within the GOES-R algorithm sensitivity range. April 20: STAR submits statement on climate impact. The GOES-R products played a role in the assessment. Early Role of the GOES-R Volcanic Ash Products

23 IMPACT ON AVIATION: Nearly 100,000 canceled flights Airlines were losing $200 million/day Total economic impact - $2 billion After Ash Event During Ash Event

24

25 April 14: beginning of explosive ash producing eruption. We began regularly distributing the GOES-R ash products to the operational and research community via an list. April 15 - April 23: Significant airspace restrictions over Europe. The GOES-R products show the evolution of the ash cloud and are featured on NOAA web pages. April 19: UK Met Office requests real-time GOES-R volcanic ash products (using SEVIRI). April 22: GOES-R ash products are generated in real-time and displayed on the web. April 21:GE Aviation releases preliminary safe operating threshold. The 2 mg/m 3 threshold is within the GOES-R algorithm sensitivity range. April 20: STAR submits statement on climate impact. The GOES-R products played a role in the assessment. Early Role of the GOES-R Volcanic Ash Products

26

27 Courtesy of Dave Schneider (USGS)

28 Topics Introduction to the GOES-R AWG volcanic ash products Eyjafjallajökull background Impact of the GOES-R volcanic ash products on volcanic ash monitoring and modeling Quality assessment Advantages of the geostationary view Looking ahead Summary Marco Fulle -

29 May 6, 2010 (14:00 UTC) Ash cloud

30 May 6, 2010 (14:00 UTC) White: GOES-R Heights Ash cloud

31 Ash cloud May 6, 2010 (14:00 UTC) White: GOES-R Heights Magenta: IR Window Heights The GOES-R ash cloud heights closely match the CALIPSO cloud top boundary. The traditional methodology underestimates the cloud height.

32 May 7, 2010 (14:00 UTC) Ash clouds White: GOES-R Heights

33 May 7, 2010 (14:00 UTC) Ash clouds White: GOES-R Heights Magenta: IR Window Heights

34 May 7, 2010 (14:00 UTC) Ash clouds Even though these clouds are very optically thin, the GOES-R ash cloud heights closely match the CALIPSO cloud top boundaries, unlike the IR window based height. White: GOES-R Heights Magenta: IR Window Heights

35 Topics Introduction to the GOES-R AWG volcanic ash products Eyjafjallajökull background Impact of the GOES-R volcanic ash products on volcanic ash monitoring and modeling Quality assessment Advantages of the geostationary view Looking ahead Summary Marco Fulle -

36 SEVIRI,  sat > 65.0 o Now you see it…

37 MODIS,  sat < 30.0 o Now you don’t…

38 MODIS,  sat < 30.0 o

39 May 7, 2010 (03:00 UTC) Ash clouds

40 May 7, 2010 (03:00 UTC) From Low Earth Orbit (MODIS)

41 May 7, 2010 (03:00 UTC) From Geostationary (SEVIRI)

42 Topics Introduction to the GOES-R AWG volcanic ash products Eyjafjallajökull background Impact of the GOES-R volcanic ash products on volcanic ash monitoring and modeling Quality assessment Advantages of the geostationary view Looking ahead Summary Marco Fulle -

43 NOAA Volcanic Ash Working Group In response to the major aviation disruption caused by Eyjafjallajökull, NOAA has established a Volcanic Ash Working Group (B. Pierce and M. Pavolonis represent STAR). Some of the goals of this group are to: examine current volcanic ash forecasting and observing tools, improve observations of volcanic ash, and work towards using satellite observations to initialize models. While the GOES-R products have been shown to be valuable, additional efforts are needed to ensure these products are addressing the goals of the VAWG Have procedures been developed to assimilate these products into models (GOES-R RR)? Are the full capabilities of GOES-R being utilized?

44 With an additional processing step, the ABI (and SEVIRI and MODIS) products can be used to issue automated ash cloud alerts to VAAC’s. In addition, the ABI volcanic ash output can be combined with output from the SO 2 detection algorithm and lightening mapper data to build a state-of-the-art volcanic cloud alert and monitoring system. If such a decision support system is not built, the ABI’s temporal resolution will not be fully utilized, as forecasters cannot possibly manually analyze every image (and the 5-minute warning criteria will not be realized). Text Warning Quantitative description of ash cloud Product Quick-look

45 Just in the last week or so, we received 22 verified ash alerts - busy week!

46

47 Topics Introduction to the GOES-R AWG volcanic ash products Eyjafjallajökull background Impact of the GOES-R volcanic ash products on volcanic ash monitoring and modeling Quality assessment Advantages of the geostationary view Looking ahead Summary Marco Fulle -

48 Summary The AWG program provided the support needed to develop a sophisticated set of quantitative volcanic ash products for GOES-R (along with robust code, capable of running reliably in real-time). The eruption of Eyjafjallajökull provided an opportunity to impact operational volcanic ash forecasting and research through the generation of real-time SEVIRI products. We are now better prepared for future eruptions of Eyjafjallajökull and neighboring Katla. These products (using MODIS) will be made available to the Anchorage VAAC via the GOES-R PG. Despite the success of these products, GOES-R Risk Reduction efforts are needed to built a fully automated volcanic cloud alert system (needed to help achieve a 5-minute warning capability and take advantage of the ABI’s high temporal resolution) and to develop procedures to assimilate the retrievals into models.

49 Thanks! Marco Fulle -