Reconstructing Sea Ice Extent from Early Nimbus Satellites David Gallaher (1), Garrett Campbell (1) 1 1)National Snow and Ice Data Center, University of.

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Reconstructing Sea Ice Extent from Early Nimbus Satellites David Gallaher (1), Garrett Campbell (1) 1 1)National Snow and Ice Data Center, University of Colorado, Boulder, Colorado, 80303, USA

Reconstructing Sea Ice Extent from Early Nimbus Satellites The 1960s NIMBUS Series 2 Spacecraft Launch date End of Operation Sensors Nimbus-1 Aug. 28, 1964 Sep 22, 1964 AVCS, HRIR Nimbus-2 May 15, 1966 Nov 15, 1966 AVCS, HRIR, MRIR Nimbus-3 Apr. 14, 1969 Jan. 31, 1970 IDCS, HRIR, MRIR Advanced Vidicon Camera System (AVCS) to provides visible light images (4-bit, 3km nadir ) Image Dissector Camera System (IDCS) provides improved visible light images (8-bit, 5km nadir) Medium Resolution Infrared Radiometer (MRIR) to measure electromagnetic radiation emitted in five wavelength bands (Nimbus II & III) 50km High Resolution Infrared Radiometer (HRIR) to map the Earth at night (7km nadir) HRIR Sensor

Reconstructing Sea Ice Extent from Early Nimbus Satellites Determining 1960s Sea Ice Extent - Project Impetus Could 50-year old 1960s satellite data can be used to create polar sea ice extent on a monthly basis? Except for the original science team, much of the data has likely never been seen or been made available. The original engineers and researchers are now mostly in their late 70s and 80s, and time was running out to contact them. The tapes were disintegrating and film scanners are becoming obsolete. The objective was to get this data to earth science researchers in a modern format (NetCDF). This could extend the satellite sea ice records by as much as 16 years.

Reconstructing Sea Ice Extent from Early Nimbus Satellites Nimbus Sensors (Visible and Infrared) Ground Resolution as good as 1 km, 250,000 + images NCDC had the only known copy Nimbus II HRIR Infrared False Color, Asia, September 23, 1966 Devon and Baffin Islands, AVCS Image September 16, 1964 Note Himalayan Plateau and Pacific typhoons National Archives had only tapes

Reconstructing Sea Ice Extent from Early Nimbus Satellites Extraction & Recovery of Nimbus data 5 Processing of Visible Data: AVCS/IDCS: um Digitizing film 250,000 images Scanning over 1,000,000 frames Marking bad data Navigating Merge with NORAD ephemeris data Merging into time composite (From NCDC Ashville, NC) Metadata development Need to enter the time of every image Need to designate the center Not possible to automate because some of the information is not readable We were able to interpolate between good images to guess the times Improve image location to 20km

Reconstructing Sea Ice Extent from Early Nimbus Satellites Extracting Data from Nimbus Film Record (Note: Images were pictures of TV monitor on tape playback) 1960’s Archive = BW Film The film contains images that were recorded at random locations along the film reel. (ie 4” apart then 7” then 5” etc). Therefore all the film was scanned and the images were programmatically rebuilt Student monitoring of automatic digitizing machine (Kodak HR500) and inspection of every image. They then created the metadate for every image. About 4% of the Nimbus 1 data was rejected

Reconstructing Sea Ice Extent from Early Nimbus Satellites Video Game Like Metadata Development

Reconstructing Sea Ice Extent from Early Nimbus Satellites Visible Imagery Process: Scan, Annotate the Time, Center of Every Image and Check Navigation Image Scanning The images were acquired 91 seconds apart. Navigation based on time and camera number Center Selection

Reconstructing Sea Ice Extent from Early Nimbus Satellites Bad Data Flagging and Calibration Four different gray wedges, in Nimbus 2 case.

Reconstructing Sea Ice Extent from Early Nimbus Satellites Sept 1964 NIMBUS/AVCS Sept 2011 TERRA/MODIS 10 Results: Comparing Historic Imagery Independence Glacier Northern Greenland

Reconstructing Sea Ice Extent from Early Nimbus Satellites 1964 NIMBUS-I Antarctic Sea Ice Extents AVCS Composite 7-day minimum brightness for September Note smooth grey extent of sea ice as compared to the noisy open water. Nimbus I Antarctic visual detection analysis. Ice edge determinations are in blue while the average SSM/I ice extent is in magenta.

Reconstructing Sea Ice Extent from Early Nimbus Satellites Average Extent Analysis 1964 and 2014 Compared to 1964 time composite minimum brightness Nimbus I

Reconstructing Sea Ice Extent from Early Nimbus Satellites ± 0.19x10 6 km 2 Nimbus I Nimbus II Nimbus III ± 0.29x10 6 km ± 0.25x10 6 km ± 0.27x10 6 km 2 New 2014 Record Maximum x10 6 km 2 The 1960’s Antarctic Variability was Much Greater Than Expected.

Reconstructing Sea Ice Extent from Early Nimbus Satellites NSIDC Product Statistics. October 2014

Reconstructing Sea Ice Extent from Early Nimbus Satellites Summary 15 The Nimbus Data Rescue Project: Nimbus I, II, III was supported by NASA contract #NNG08HZ07C as a subtask to NSIDC at the University of Colorado. Data from these 1960’s satellites is generally forgotten as a data source. We have found the data was of reasonable quality but the output products were limited due to the computer processing technology of the era. The Nimbus data represents the oldest digital satellite data in NASA’s data holdings (both visible and infrared). These data are now stored in modern formats and are available for general use via NASA’s data access system: and at

Reconstructing Sea Ice Extent from Early Nimbus Satellites 16 Thank You Nimbus I AVCS Antarctic image September 1964 with a distinct sea ice boundary Nimbus III IDCS Arctic image September 2, 1969 centered off NW Greenland