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UID:6f9ced7b9a844a02b1809f8d8daeec68
CATEGORIES:Field and Summer Schools
CREATED:20190930T125333
SUMMARY:Snow Measurement Field School
LOCATION:White Mountain National Forest\, U.S\, Bretton Woods\, New Hampshire\, USA
DESCRIPTION:Snow covers a large portion of the Earth’s mid- and high-latitude land surf
 ace for extended periods every year.  For humans, the precipitation that ac
 cumulates in mountains and forests in the form of snow is crucial, providin
 g water to about 2 billion people on Earth (Barnett et al., 2007; Mankin et
  al., 2015). It is equally important for virtually all humans in the way it
  regulates essential climate processes through the snow albedo effect (Kell
 ogg, 1973; Groisman et al., 1994; Lemke et al., 2007) and through its super
 b insulating properties (Goodrich, 1982; Mellor, 1964; Sturm et al., 1997).
  Quite simply, any change in global snow quality or quantity is likely to h
 ave serious climatic and societal consequences for all of us (Barnett et al
 ., 2005; Mankin et al., 2015; NASA, 2016; Sturm et al., 2017).\nAccurate sn
 owpack property measurements are needed as ground truth for remotely sensed
  data, as input for hydrological models, as input to ecological models, and
  as data when making avalanche forecasts. There are two reasons a scientist
  needs to know how to make these measurements: First, because they will dur
 ing their career collect and use field data for their own research purposes
  and should understand the spatial and temporal relevance of the data.  Sec
 ond, because they are likely to use snowpack data from field practitioners 
 or agency sources and need to understand the accuracy and the richness of t
 he data they are using.\nThe curriculum assumes little prior knowledge and 
 experience on the part of the students, and begins with field and snow safe
 ty, then progresses to simple but critical snow measurements like depth, de
 nsity, and snow water equivalent. Sampling schemes (including time/money co
 nstraints) are discussed. The students are divided into teams and paired wi
 th an instructor, then tasked with making field measurements that simulate 
 what would be required in actual field campaigns. There is a specialized me
 asurement technique day where students will cycle through stations intended
  for students to get hands on experience with these instruments (including 
 a snow micropenetromter (SMP), snow conductivity instruments, mobile radar 
 system, near infrared camera, field spectrometer, and drones). Daylight hou
 rs are spent almost entirely out in the snow, but in the evenings students 
 work collectively to produce secondary products and presentations based on 
 the field results, and to participate in discussions about field measuremen
 ts, handling of data, and the use of more advanced instruments.\nBy the end
  of the course, students should be able to do the following:\n\n - Excavate
  and prepare a snow pit.\n - Measure and record profiles of density, snow t
 emperature, grain size, and hardness.\n - Characterize stratigraphy and lay
 ering, snow surface roughness, and snow grain types.\n - Use a Federal snow
  sampler, an avalanche probe, a magnaprobe, and other snow measurement equi
 pment. \n - Design their own experiment for sampling snow based on specific
  scientific objectives, and have an understanding of the strengths and limi
 tations of snow field data. Application Deadline: 15 October\nSee here more
  information and how to apply: http://www.cvent.com/events/snow-measurement
 -field-school/event-summary-3b8c1fc5494b4006bb7762666250fff9.aspx\n
X-ALT-DESC;FMTTYPE=text/html:<div class="html-editor-table-container"><p>Snow covers a large portion of 
 the Earth’s mid- and high-latitude land surface for extended periods every 
 year.&nbsp; For humans, the precipitation that accumulates in mountains and
  forests in the form of snow is crucial, providing water to about 2 billion
  people on Earth (Barnett et al., 2007; Mankin et al., 2015). It is equally
  important for virtually all humans in the way it regulates essential clima
 te processes through the snow albedo effect (Kellogg, 1973; Groisman et al.
 , 1994; Lemke et al., 2007) and through its superb insulating properties (G
 oodrich, 1982; Mellor, 1964; Sturm et al., 1997). Quite simply, any change 
 in global snow quality or quantity is likely to have serious climatic and s
 ocietal consequences for all of us (Barnett et al., 2005; Mankin et al., 20
 15; NASA, 2016; Sturm et al., 2017).</p><p>Accurate snowpack property measu
 rements are needed as ground truth for remotely sensed data, as input for h
 ydrological models, as input to ecological models, and as data when making 
 avalanche forecasts. There are two reasons a scientist needs to know how to
  make these measurements: First, because they will during their career coll
 ect and use field data for their own research purposes and should understan
 d the spatial and temporal relevance of the data.&nbsp; Second, because the
 y are likely to use snowpack data from field practitioners or agency source
 s and need to understand the accuracy and the richness of the data they are
  using.</p><p>The curriculum assumes little prior knowledge and experience 
 on the part of the students, and begins with field and snow safety, then pr
 ogresses to simple but critical snow measurements like depth, density, and 
 snow water equivalent. Sampling schemes (including time/money constraints) 
 are discussed. The students are divided into teams and paired with an instr
 uctor, then tasked with making field measurements that simulate what would 
 be required in actual field campaigns. There is a specialized measurement t
 echnique day where students will cycle through stations intended for studen
 ts to get hands on experience with these instruments (including a snow micr
 openetromter (SMP), snow conductivity instruments, mobile radar system, nea
 r infrared camera, field spectrometer, and drones). Daylight hours are spen
 t almost entirely out in the snow, but in the evenings students work collec
 tively to produce secondary products and presentations based on the field r
 esults, and to participate in discussions about field measurements, handlin
 g of data, and the use of more advanced instruments.</p></div><div class="s
 ummary clear"><div class="html-editor-table-container"><p>By the end of the
  course, students should be able to do the following:</p><ul><li>Excavate a
 nd prepare a snow pit.</li><li>Measure and record profiles of density, snow
  temperature, grain size, and hardness.</li><li>Characterize stratigraphy a
 nd layering, snow surface roughness, and snow grain types.</li><li>Use a Fe
 deral snow sampler, an avalanche probe, a magnaprobe, and other snow measur
 ement equipment.&nbsp;</li><li>Design their own experiment for sampling sno
 w based on specific scientific objectives, and have an understanding of the
  strengths and limitations of snow field data.&nbsp;</li></ul><p>Applicatio
 n Deadline: 15 October</p><p>See here more information and how to apply:&nb
 sp;<a href="http://www.cvent.com/events/snow-measurement-field-school/event
 -summary-3b8c1fc5494b4006bb7762666250fff9.aspx">http://www.cvent.com/events
 /snow-measurement-field-school/event-summary-3b8c1fc5494b4006bb7762666250ff
 f9.aspx</a></p></div></div>
DTSTAMP:20260420T151531Z
DTSTART;TZID=UTC;VALUE=DATE:20200106
DTEND;TZID=UTC;VALUE=DATE:20200110
SEQUENCE:0
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