SCIENCE In The Service Of - University Of Washington

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SCIENCEin the service ofWASHINGTON STATESTEM Education in Washington State:The Facts of the MatterSummary of the Proceedings of a Symposium,Rising Above the Gathering Storm: STEM Educationin Washington StateHeld as Part of the 2011 Annual Meeting of theWashington State Academy of SciencesDecember 2011

STEM Education in Washington State:The Facts of the MatterSummary of the Proceedings of a Symposium,Rising Above the Gathering Storm: STEM Education in Washington StateHeld as Part of the 2011 Annual Meeting of theWashington State Academy of SciencesSeptember 22, 2011, Museum of Flight, Seattle, WASummarized byR. James CookDean and Professor Emeritus, Washington State UniversityImmediate Past President, Washington State Academy of SciencesEarll M. MurmanFord Professor of Engineering Emeritus, Massachusetts Institute of TechnologyPresident, Washington State Academy of SciencesDecember 2011

Washington State Academy of SciencesAbout the Washington State Academy of SciencesThe Washington State Academy of Sciences (WSAS) is an organization of WashingtonState’s leading scientists and engineers dedicated to serving the state with scientificcounsel. Formed as a working academy, not an honorary society, WSAS is modeled onthe National Research Council. Its mission is two-fold:To provide expert scientific and engineering analysis to inform public policymaking in Washington State, andTo increase the role and visibility of science in the state.WSAS was formed in response to authorizing legislation signed by Governor Gregoire in2005. Its 12-member Founding Board of Directors was recommended to the governor bythe presidents of Washington State University and the University of Washington andduly appointed by the governor. In April 2007, WSAS was constituted by the Secretaryof State as a private, independent 501(c)(3).Symposium MaterialsSource material for the 4th Annual Symposium may be found on the WSAS website,including Opening greeting by Governor Gregoire Speaker’s slides Videos of the invited speaker’s presentations After dinner talk by Brad Smith, Senior VP and General Counsel of Microsoft Symposium handouts Symposium picturesWashington State Academy of Sciences410 11th Avenue SE, Suite 205Olympia, WA 360) 534-2338 2011 Washington State Academy of SciencesSTEM Education in Washington State: The Facts of the Matteri

Washington State Academy of SciencesEXECUTIVE SUMMARYFollowing the lead of the National Academies’ 2010 report to the nation, RisingAbove the Gathering Storm, Revisited: Rapidly Approaching Category 5 (RAGS,Revisited), the Washington State Academy of Sciences (WSAS) used its 2011 annualmeeting symposium to (1) document the reality of the current state of STEM (Science,Technology, Engineering, Math) education in Washington State, (2) showcase thelatest research on teaching math and science and (3) set a course for the WSAS topartner in effecting change at both the grass roots and policy levels. The 125 peopleattending the symposium included eleven elementary-through-high school teachers andprincipals; eleven 8th to 12th grade students; five directors of science and engineeringfairs; representatives from Washington STEM, the Pacific Science Center and otherorganizations; speakers; WSAS members; and guests.Following a video greeting by Governor Christine Gregoire, Dr. Dan Mote opened thesymposium with his talk, Five Years of Rising Above the Gathering Storm. He was oneof 20 authors of the original 2005 National Academies’ RAGS report that led to the 2005America COMPETES Act, and also one of the 17 authors of the 2010 RAGS, Revisitedfollow-up report. He described the committee’s 2010 findings as “chilling,” and that“current trends affecting America’s future competitiveness are sharply negative.”While the U.S. has made gains in global competitiveness over the past five years, ourcompetitor technology nations are making gains faster than us, with the result that theUnited States is falling behind. He stated during the discussion that we, the Americanpeople “don’t get it,” that “public opinion must be galvanized,” that “you cannot fix aproblem unless you know you have a problem.”Dr. Edward D. Lazowska, Bill & Melinda Gates Chair in Computer Science & Engineering,University of Washington, provided an analysis of STEM education in Washingtonrelative to other technology-dependent states (technology peer states), similar tothe facts and conclusions reported in RAGS for America relative to other nations. Hepointed out that Washington ranks 2nd among the ten technology peer states inintensity of its scientific and engineering workforce, 2nd in intensity of engineers, and5th in intensity of computer specialists. But then he adds, “It turns out that they[this high-tech workforce] are not our own children.” Washington ranks second amongthe ten technology peer states, and first on a per capita basis, in the importation of22- to 39-year olds with a bachelor’s degree or higher. Washington’s pipeline between9th grade and completion of a college degree is the leakiest of the ten technology peerstates: for every 100 students that enter high school, only 18 complete a college degreewithin 150% of the time normally required.Senator Rosemary McAuliffe, Chair of the Washington State Senate Committee on EarlyLearning and K-12 Education, emphasized the importance of partnerships and the needto convince the public that we have a problem. She called attention to the WashingtonSTEM Program as one of the “legislative highlights” that seeks to improve studentachievement and opportunity in STEM subjects, describing the program as mobilizing“education, business, and civic leaders to fulfill shared responsibility to improve STEMinstruction throughout the state.”STEM Education in Washington State: The Facts of the Matter1

Washington State Academy of SciencesDr. Andrew Meltzoff, Job and Gertrud Tamaki Endowed Chair and Co-Director of theInstitute for Learning and Brain Science at the University of Washington, addressed howchildren’s interest in math is shaped in early childhood through societal stereotypes.In particular, young girls sense already in 2nd grade that boys do math and girls doreading, and consequently conclude by 2nd or 3rd grade that they don’t like math.Dr. Tamara Homlund Nelson, Associate Professor in Science Education at WashingtonState University, Vancouver, brought findings from STEM research to the symposiumaudience. She explained how the conventional linear one-way teacher-to-student modelneeds replacement with a “circular model of learning” in which teachers and studentsdevelop the learning content in an iterative, interactive way. This was one of threeinteractive components of teaching for understanding, the other two being disciplinaryknowledge and knowledge of pedagogy.Dr. George “Pinky” Nelson, Director of Science, Mathematics and Technology Educationand Professor of Physics and Astronomy at Western Washington University spoke abouttheir program for educating “tomorrow’s” math and science teachers, and his workwith schools in Whatcom and Skagit Counties as well as the Makah reservation atCape Flattery. His data on inverse correlation of proficiency outcomes with student’seconomic levels as measured by percentage of students receiving free or reduced-pricelunches in the respective schools was both sobering and consistent with other findingson academic performance and poverty.WSAS members attending the symposium were introduced to the important topic ofscience and engineering fairs by inclusion of science and engineering fair directors,students and their advisors and mentors. Feedback and follow-up interactions captureda significant amount of audience input. Further analysis after the symposium revealedthat Washington is far behind other states in the level of student participation inscience and engineering fairs. For example, in the 2011 Intel International Science andEngineering Fair, the state’s student participation per capita ranked 44th out of 47participating states.As the after-dinner speaker, Mr. Brad Smith, Microsoft General Counsel and Senior VicePresident for Corporate and Legal Affairs, echoed the dire situation for STEM educationin Washington. Pointing out that Washington has a “skills gap,” he stated thatWashington bachelor degree production in STEM-related fields needs to grow by 40% inthe next seven years. Sharing lessons he learned as Chair of Governor Gregoire’s HigherEducation Funding Task Force, he emphasized the need “to meet in the middle” insolving the issues, but that “it is not realistic for people within government to meet inthe middle if everyone outside of government stays in their respective corners.” It muststart with individuals and groups outside government working together and standingbehind a common proposal.STEM Education in Washington State: The Facts of the Matter2

Washington State Academy of SciencesWASHINGTON STATE FACTOIDS Washington ranks 2nd in the Kauffman Foundation New Economy Index of “leadersof innovation” states (2010). Only Massachusetts ranked higher than Washingtoni.Ten of the top twelve states form a technology peer group: California, Colorado,Connecticut, Maryland, Massachusetts, New Jersey, New York, Utah, Virginia,Washington. In the 2011 Intel Science Talent Search – the “Junior Nobel Prize” – only two ofthe 300 semifinalists were from Washington, putting it in 8th place among 10technology peer states. Top participating state New York had 101 semifinalistsii. Employment in Washington private sector technology industries quadrupled from1974 to 2009, reaching almost 400,000 employeesiii. 80% of all new U.S. jobs in STEM fields are projected to be in computer scienceand other fields of engineeringiv. Washington produces 29.8 engineers for each 1000 engineering employees, and21 computer scientists for every 1,000 computer science employees, ranking 9thand 7th respectively among the 10 technology peer states (2005)v. Due to capacity constraints, the University of Washington College of Engineeringis able to accommodate only half of its applicants – enrolled college studentswho have successfully fulfilled the Engineering pre-requisites. Computer Science& Engineering can accommodate only one quarter of its applicantsvi. For every 100 Washington students that enter 9th grade, only 18 receive abachelor’s degree within 150% of time. Washington ranks 10th – last – among thetechnology peer states in this metricvii. In 2007, the rate of job growth in Washington was about 3% for both the lifesciences sector and total employment. Life science sector job growth increased to8% by January 2011, compared with a negative 3% for total employmentviii. Washington 4th graders achieved 44% proficiency in mathematics skills (2007)and 28% in science skills (2005), ranking 4th and 7th, respectively, among itstechnology peer statesix. Washington 8th graders achieved 36% proficiency in mathematics skills (2007)and 33% proficiency in science skills (2005), ranking it 6th and 7th, respectively,among its technology peer states x. In 2007, Washington spent an average of 8,524 per elementary and secondaryschool student in public schools, ranking 8th among the 10 technology peerstates. Top ranked New Jersey spent 16,163. The Washington expenditureincreased 48.7% from 1997-2007, compared to the average increase for thetechnology peer states of 67.8%xi.STEM Education in Washington State: The Facts of the Matter3

Washington State Academy of Sciences Washington ranks 47th when public school financing is compared to personalincome, with 40.98 per 1,000 in 2007-08, a 2 decrease from 2005-06 (beststate: Alaska, 78.08; national average, 49)xii. Washington ranked 44th out of 47 states on per capita participation in the 2011Intel International Science and Engineering Fair (ISEF) with only 10 of 988 USparticipating studentsxiii. Washington ranks 2nd among the 50 states in the percent of its workforce who areengineers, surpassed only by Michigan (2008)xiv. More than 40% of the students that the UW College of Engineering is unable toaccommodate, and more than 60% of the students that the UW Department ofComputer Science & Engineering is unable to accommodate, have college gradepoint averages of 3.25 or above (2011)xv. Washington is the second largest importer of bachelor’s degree recipients amongits technology peers (4th among all 50 states), and first on a per capita basis(2007)xvi. For every 100 bachelor’s degrees awarded by one of Washington’s universities,another 76 are imported. For every 100 graduate or professional degrees awarded,Washington imports another 125xvii. Washington ranks 30th in state financial support for higher education whencompared to personal income, with 5.62 per 1,000 in 2010, a 1.40 decreasefrom 2008 (best state: New Mexico, 13.23; national average: 6.18)xviii Washington ranked 38th in on-time high school graduation rates with 71.9% in2007-08, below the national average of 74.9%xix. Almost half (48%) of all Washington high school graduates enrolled in communityand technical colleges take remedial math courses (2008-09)xx. Societal stereotypes about STEM are absorbed in childhood and begin to sculptinterests and aspirations. As early as 2nd grade, Washington girls think that “mathis for boys, not for girls”xxi. In 2010, Washington spent 850 million on 18,000 criminal inmates – a cost of 47,222 per inmate – an amount that tripled from 1982 to 2008xxii. The average Washington public school teacher’s salary in 2007 was 47,882, 7thamong the 10 technology peer states. California spent an average of 63,840. Theaverage Washington teacher salary increased 26.5% from 1997-2007, compared tothe average increase for its technology peer states of 28.2%xxiii. Every dollar spent on early learning can generate returns of up to 10 in savingsfrom reduced crime, corrections and other costsxxiv.STEM Education in Washington State: The Facts of the Matter4

Washington State Academy of Sciences 11,274 eligible low-income Washington preschoolers (36% of those eligible)were unserved by existing pre school programs in 2010xxv. Math proficiency rates for White (51%) and Asian/Pacific Islander (56%)Washington fourth graders are more than double the rates for African American(24%), Latino (20%), and Native American (21%) studentsxxvi. Washington’s Latino population increased 70% from 2000 to 2010 andconstitutes 11% of the populationxxvii. High school dropout rates in Washington for Native American (10.1%), AfricanAmerican (7.8%), and Latino (7.2%) students were nearly double the rates forWhite (4.5%) and Asian/Pacific Islander (3.3%) students in 2008-09xxviii. A variant on the 80-20 rule – In Skagit & Whatcom counties and Cape Flattery5th to 10th grades, 80% proficiency on standard science exams are achieved forclasses where 20% of the students qualify for free or reduced lunches, while only20% proficiency is achieved for classes with 80% of the students qualifying forfree or reduced lunches (2009-10)xxix. In 2010, 18.2% of Washington residents under 18 years old were in householdswith incomes below the national poverty levelxxx. More than 47 percent of single mothers with children under 5 in Washingtonwere living in poverty in ://www.societyforscience.org/document.doc?id 264Technology Alliance: The Economic Impact of Technology Based Industries inWashington State, 2010Bureau of Labor StatisticsNCH National Center for Higher Education Management Systems/U.S. CensusBureauUniversity of Washington College of Engineering and Computer Science andEngineering DepartmentNCH National Center for Higher Education Management Systems/U.S. CensusBureauWashington Research Council, Trends in Washington’s Life Science Industry2007-2011 www.washbio.orgNational Assessment of Educational Progress (NAEP), 2009National Assessment of Educational Progress (NAEP), 2009National Science Foundation 8League of Education Voters vest-in-what-works/Data provided by Gary Foss, private communication. Participant list at http://www.societyforscience.org/document.doc?id 295National Science Foundation 8University of Washington College of Engineering and Computer Science andEngineering DepartmentSTEM Education in Washington State: The Facts of the Matter5

Washington State Academy of SciencesNational Center for Higher Education Management Systems/U.S. Census BureauSam Smith, “Washington higher education: When should we schedule the last AppleCup?” Seattle Times, Nov 28, 2010xviiiLeague of Education Voters vest-in-what-works/xixLeague of Education Voters epare-all-children/xxLeague of Education Voters cus-on-math-science-and-engineering/xxiCvencek, Meltzoff, & Greenwald, Child Development (2011)xxiiSeattle Times, October 15, 2010, “Invest in youngest citizens to reduce burgeoningcrime costs.”xxiiiNational Science Foundation 8xxivSeattle Times, October 15, 2010, “Invest in youngest citizens to reduce burgeoningcrime costs.” Also see James J. Heckman, “Skill formation and the economics ofinvesting in disadvantaged children”, Science Vol 312, pp 1900-1902, June 30,2006xxvLeague of Education Voters vest-in-early-learning/xxviNational Assessment of Educational Progress (NAEP), 2009, League of EducationVoters cus-on-math-scienceand-engineering/xxiiSeattle Times, Oct 6, 2011 “Washington’s redistricting commission should ensurepeople of color have more influence”xxviiiLeague of Education Voters epare-all-children/xixGeorge “Pinky” Nelson, “Preparing Teachers for Tomorrow’s Schools”, WSAS 2011Symposium, Sep 22, 2011xxxSeattle Times, Sep 21, 2011 “Census: More residents sinking into poverty”xvixviixxxiSeattle Times, Sep 21, 2011 “Census: More residents sinking into poverty”STEM Education in Washington State: The Facts of the Matter6

Washington State Academy of SciencesRECOMMENDED WSAS ACTIONSSymposium participants were asked: Consistent with its charter, what can the WSAS doas an organization to help improve STEM education in Washington; and what can WSASmembers do as individual volunteers to help improve STEM education in Washington?Responses to these questions, the content of the talks, comments during each sessions,and informal input formed the basis for these recommendations. The WSAS should take a proactive role in informing the public on “The Facts ofthe Matter” about STEM education in Washington State by: Informing the State’s Legislators; Speaking out in public; Bringing attention through the media; and/or Informing WSAS members who can carry the message to their colleagues andconstituencies.The WSAS can help to provide a forum for teachers to share best practices and findingsfrom classroom teaching as well as learning of the latest findings from STEM research.There are pockets of excellence throughout the state, but not adequate mechanisms fordiffusion across school boundaries. The forum might be online, a workshop/conferencesimilar to the annual meetings of American Society of Engineering Education, or acombination of these. The WSAS should partner with other organizations to accomplishthis goal.The WSAS should continue its program enabled by member-donated funds to sponsorone or more students to attend and represent Washington State at the annual meetingof the American Junior Academy of Sciences. Two awards were announced at the 2011Annual Meeting for students attending Duvall and Odessa high schools, respectively, toattend the 2012 meeting of the AJAS in Vancouver, BC.The WSAS should also take a proactive role in increasing the participation ofWashington’s K-12 students in science fairs and competitions. Specific actions couldinclude: Encouraging WSAS members to participate as mentors, judges, speakers anddonors; Nurturing the establishment of additional science and engineering fairs; Sponsoring a Junior Academy of Sciences; and/or Developing or contributing to an online mentoring resource for student projectsthat would encompass not only WSAS members, but their peers, employeesand/or students.The WSAS has limited financial and human resources and cannot carry through on all ofthe above actions. The WSAS Board needs to prioritize these actions based upon whichwould add the most value to improving STEM education in the State. WSAS should seekto partner with other organizations whenever possible and avoid duplication of efforts.STEM Education in Washington State: The Facts of the Matter7

Washington State Academy of SciencesSubhash Singhal, WSAS Board Member,introducing American Academy of JuniorSciences Award WinnersBonnie Dunbar, WSAS Board Member, withAJAS Award Winners Katie McClintic (l) andKira Powell (r)Senator Rosemary McAuliffe and Subhash Singhal with studentsNick Vergara, Cedarcrest HS, asks a questionNew WSAS member Sarah Keller (l) talks toWSAS Board member Kristina Katasaros (r)STEM Education in Washington State: The Facts of the Matter8

Washington State Academy of SciencesINTRODUCTIONFollowing the lead of the National Academies 2010 report to the nation, Rising Abovethe Gathering Storm, Revisited: Rapidly Approaching Category 5, the Washington StateAcademy of Sciences used its 2011 symposium to (1) document the chilling realityof the current state of STEM (Science, Technology, Engineering, Math) education inWashington State, (2) showcase the latest science and methods of teaching math andscience to better understand and deal with the challenges and (3) set a course for itsmembers and as the State’s premiere scientific society, partner in effecting change atboth the grass roots and policy levels.The National Academies 2010 report was a follow-up to its 2005 report, Rising Abovethe Gathering Storm: Energizing and Employing America for a Brighter Economic Future.This report was produced by a blue-ribbon committee of university presidents, Nobellaureates, and corporate CEOs in response to a request by a bipartisan group of senatorsand members of congress to answer two questions:What are the top 10 actions, in priority order, that federal policy makers couldtake to enhance the science and technology enterprise so the United Statescan successfully compete, prosper, and be secure in the global community ofthe 21st century?What strategy, with several concrete steps, could be used to implement each ofthese actions?The conclusions and recommendations in the 2005 report were based on the premisethat “Without high-quality, knowledge-intensive jobs and the innovative enterprisesthat lead to discovery and new technology, our economy will suffer and our people willface a lower standard of living.” The gathering storm metaphor was used to conveythe threatening situation facing the United States if it continues on its present courseof falling behind other developed and some developing countries in the training ofscientists and engineers.The 2010 report, Rising Above the Gathering Storm, Revisited: Approaching Category5, was requested by the leaders of the National Academies and written by the originalcommittee minus two members that had since gone on to cabinet posts and one whohad deceased. Their goal was to evaluate progress over the past five years since theoriginal report was released. The report concludes that the United States made noprogress since the 2005 report in ability as a nation to “successfully compete, prosper,and be secure in the global community of the 21st century,” that, instead, America hadactually lost ground relative to its global peer technology nations. Below are factoidsincluded in the 2010 report that refer specifically to the declining status of STEMeducation in the United States.Sixty nine percent of United States public school students in fifth througheight grades are taught mathematics by a teacher without a degree orcertificate in mathematics.STEM Education in Washington State: The Facts of the Matter9

Washington State Academy of SciencesNinety three percent of United States public school students in fifth througheight grades are taught physical sciences by a teacher without a degree orcertificate in the physical sciences.The United States ranks 27th among developed nations in the proportion ofcollege students receiving undergraduate degrees in science or engineering.The United States ranks 20th in high-school completion rate amongindustrialized nations and 16th in college completion rates.China’s Tsinghua and Peking Universities are the two largest suppliers ofstudents who receive PhD’s—in the United States.The United States has fallen from first to eleventh place in the OECD in thefraction of 25-34 year olds that has graduated from high school. The olderportion of the U.S. workforce ranks first among OECD populations of the sameage.Unlike the previous two annual meeting symposia that were open to members only,the WSAS opened registration for the 2011 symposium to anyone interested in STEMeducation. Of the 125 attendees, more than half were guests including eleven K-12science teachers and eleven students grades 8 to 12 from across the state, ranging fromsmall rural to large metropolitan schools. Travel expenses and registration fees for theseteachers and students were paid with generous donations/sponsorships provided by theApex Foundation in Bellevue, Boeing, Microsoft Research Connections, Pacific NorthwestNational Laboratory operated by Battelle, and Schweitzer Engineering Laboratories inPullman.Four of the students exhibited posters of prize-winning projects previously presentedat science fairs. Two of these were honored during a noon ceremony with awards thatinclude all expenses to represent Washington State at the 2012 annual meeting of theAmerican Junior Academy of Sciences in Vancouver, BC Canada. Also attending thesymposium and invited to speak during the noon program were the directors of five ofthe seven science fairs held annually across the state for Washington grade-school andhigh-school students to exhibit their science projects and compete for the right to moveon to national and international science fair competitions.The Academy’s 2011 symposium was the second symposium since its first (founding)annual meeting in 2008 with a focus on the education. The other symposium, heldas part of the 2010 annual meeting at the Woodmark hotel in Kirkland, WA, was onthe topic, The Science for Early Childhood Development: Learning for Life. The 2011symposium takes this topic to a discussion of K-12 with a focus on STEM educationmore specifically. The Museum of Flight was a perfect backdrop for the 2011 symposiumfocused on STEM education in Washington State.STEM Education in Washington State: The Facts of the Matter10

Washington State Academy of SciencesPART I: THE GATHERING STORMFive Years of Rising Above the Gathering StormDr. C.D. (Dan) Mote, Regents Professor and President Emeritus, University of Maryland.Following a video greeting and charge to the symposiumby Governor Christine Gregoire, Dr. Dan Mote opened thesymposium with his talk, Five Years of Rising Above theGathering Storm. Dr. Mote is a member of the NationalAcademy of Engineering. He was also one of the 20 authorsof the original 2005 National Academies’ report, Rising Abovethe Gathering Storm: Energizing and Employing America fora Brighter Economic Future1 and one of the 17 authors of the2010 Approaching Category 52 follow-up report.Dr. Mote opened his talk by complimenting the WSAS forconnecting teachers, students, policymakers, STEM educationleaders, and university faculty as done for the symposium, stating that “this is exactlywhat the country needs” to move ahead in STEM education.He then turned his attention to the Gathering Storm report, boiling itsrecommendations for actions down to steps required to assure high-paying quality jobsfor Americans and a plentiful supply of clean affordable energy for America. He made itclear that STEM education is fundamental to achieving both of these goals.He pointed out that the 2005 report with its recommendations led to the AmericaCOMPETES Act, approved almost unanimously by both houses of congress and signedinto law by President George W. Bush, and that the 2010 follow-up report wasinstrumental in getting congressional approval for renewal of the America COMPETES Actin December 2010. In fact, he said that without the 2010 follow-up report, renewal ofthe American COMPETES Act almost certainly would have failed.Dr. Mote described their findings five years after the release of the 2005 report as“chilling,” and that “current trends affecting America’s future competitiveness weresharply negative.” He pointed out, for example, that federal support in scienceand engineering had dropped from 0.76% of GDP in 2004 to 0.24% of GDP in 2008.A significant part of the U.S. workforce in science, technology, engineering andmathematics today consists of foreign nationals, many of them educated in, and whothen have stayed in the United States on green cards or have become U.S. citizens.Brad Smith, Microsoft’s General Counsel and Vice President, Legal and Corporate Affairs,Rising above the Gathering Storm Energizing and Employing America for a Brighter EconomicFuture. 2007. National Academy Press. 564 pp2Rising Above the Gathering Storm, Revisited—Rapidly Approaching Category 5. 2010. NationalAcademy Press, 85 pp.1STEM Education in Washingt

symposium with his talk, Five Years of Rising Above the Gathering Storm. He was one of 20 authors of the original 2005 National Academies’ RAGS report that led to the 2005 America COMPETES Act, and also one of the 17 authors of the 2010 RAGS, Revisited follow-up report. He descri