Upload
adonia
View
27
Download
2
Tags:
Embed Size (px)
DESCRIPTION
Research on Interventions that Encourage Minorities to Pursue Science Careers. Yolanda S. George, Deputy Director, Education Programs AAAS. In 2005, how many doctorates in biological sciences were awarded to. All U.S. Citizens and Permanent Residents? American Indians? Black? - PowerPoint PPT Presentation
Citation preview
Research on Interventions that Encourage Minorities to Pursue Science Careers
Yolanda S. George,
Deputy Director, Education Programs
AAAS
In 2005, how many doctorates in biological sciences were awarded to
All U.S. Citizens and Permanent Residents?
American Indians?
Black?
Mexican Americans?
Puerto Ricans?
Hispanics?
Asianss?
In 2005, how many doctorates in biological sciences were awarded to
All U.S. Citizens and Permanent Residents? 4,141
American Indians? 3
Black? 142
Mexican Americans? 68
Puerto Ricans? 53
Hispanics? 207
Asians? 409
Social Cognitive Career Theory (SCCT)Robert Lent, University of Maryland College Park
Integrative theoretical framework that explores the psychological and social factors that produces personal interest and lead to choices related to education and careers
Also concerned with the network of factors that affect performance and persistence…in educational and career paths…and satisfaction in a particular job.
Drivers of educational and career choices – (a) Personal Interest, (b) Family Expectation and (c) Other External Factors
SCCT is based on Self-efficacy – people beliefs about their ability to perform specific behaviors or action (Albert Bandura, Stanford)
Four Sources
Prior performance (mastery or failure)
Observation of others (experiences or models)
Social messages (encourage or discourages)
Physiological or affective reaction (test anxiety)
Other Factors
Expectations surrounding particular outcomes
Goals that motivate people to produce a particular outcome
Other contextual factors and barriers—social, financial, environmental
Person input (race, gender, etc)
SCCT Implications for Intervention Program Strategies
Getting students to rethink areas that they might be able to do well at but have prematurely foreclosed
Clarifying career goals
Supporting career goals
Strengthening self-efficacy or student’s belief in their ability to perform
Instilling realistic outcome expectations
Managing environmental barriers and building effective support systems
Social Identity and Stereotype ThreatClaude Steele, Stanford University
Stereotype threat arises when a person is in a situation where negative stereotype applies
Each individual has multiple identities (age, race/ethnicity, sex, religion)
Cues in the environment that accentuate or lessen threats
Schools and other environments are different for people with different identities
If the cues changes, performance changes
Social Identity and Stereotype Threat Implications for Intervention Programs
Cues from leadership, faculty, and others
Critical mass of people with a certain identity
Discussions about race, intelligence, etc
http://ehrweb.aaas.org/sciMentoring/
What do we know from the STEM mentoring literature?
STEM career mentoring appears to be more prevalent in after-school programs for middle and high school students.
The level of systematic STEM career and workforce mentoring is not high in undergraduate research programs, or during the higher education years, or in postdoctoral fellowship programs.
Support networks for women (including students) in STEM areas in academia, industry, and government are useful in helping family/career balance, negotiating organizational or departmental challenges, and in career advancement.
What type of STEM mentoring research is needed?
More research is needed on cross-gender and cross-racial STEM mentoring and mentoring of disabled persons in STEM disciplines.
More STEM mentoring research linked to outcome measures is needed, such as entry into STEM college majors, time-to-degrees at all degree levels, types of college and university degrees earned, entry into STEM graduate majors, entry into STEM careers by sectors, and advancements in the STEM workforce.
More STEM mentoring studies that follow cohorts of students or scientists and engineers are needed.
What Workforce Skills STEM Students Should Know & Understand
Abstracts/posters
Oral presentations
Literature reviews
Formulate research questions
Select appropriate methods
Statistical/computational/quantitative skills
Prepare/review papers
The patent process
Intellectual property
Ethics
Best practices in teaching
Setting up/managing a lab
Budgets/Grant-writing
Science policy
Recommendations to STEM departments include:
Appoint a departmental mentoring committee to develop and implement a departmental mentoring plan with a particular emphasis on providing students with career information and opportunities to develop workforce skills;
Provide mentor training for faculty;Provide protégé training for students;Provide online mentoring resources or links to
resources for faculty and students; and,Assess and provide incentives for high quality
faculty mentoring.
Michael Nettles and Catherine Millet, Educational Testing ServiceThree Magic Letters: Getting to the PhD
Being a research assistant increases
Student’s interaction with faculty, faculty advisers, and peers
Their presenting papers and publishing articles
Overall research productivity
Having a Mentor influences
Social interaction between student and faculty
Scholarly publishing
Degree completion and time to degree
Research Productivity
Over half of the students surveyed had presented a paper at a conference, published a book chapter, etc. but lower for African American students
Completion Data:“Big Picture” Findings have Policy Implications
Nationally, Ph.D. completion probably higher than commonly thought (approx. 57% vs. 50%), but field differences create policy challenges
Some underrepresented groups are taking longer to complete than before, but not necessarily completing at lower rates
Overall differences in minority/majority completion rates are observable, but field differences in minority/majority completion rates are pronounced
Differences in Minority and Majority PhD Completion
Under-represented Minorities
Asian American
Majority (White)
Difference between URM & Majority (White)
7-yr | 10-yr 7-yr | 10-yr 7-yr | 10-yr 7-yr | 10-yr
Engineering 46.4% | 58.7 % 45.7% | 53.6% 52.3% | 62.5% -5.9% | -3.8%
Life Sciences 43.4 % | 63.2% 45.2% | 55.9% 54.3% | 63.8% -10.9% | -0.6%
Physical Sciences & Mathematics 40.1% | 47.6% 41.8% | 52.3% 47.9% | 54.3% -7.9% | -6.7%
Social Sciences 31.2% | 48.6% 35.4% | 48.5% 41.1% | 55.4% -9.9% | -6.8%
Humanities 32.4% | 52.7% 33.1% | 55.4% 35.9% | 55.3% -3.5% | -2.6%
Source: Council of Graduate Schools, Ph.D Completion Project Data
Council of Graduate Schools www.cgsnet.org
Completion Rates and Timing by Race/Ethnicity and Broad Field
Cohort
Under-represented Minorities (Domestic)
Native AmericanBlack/African
American HispanicAsian
AmericanMajority (White)
7-yr 10-yr 7-yr 10-yr 7-yr 10-yr 7-yr 10-yr 7-yr 10-yr
Engineering 69.2% 66.7% 38.1% 50.0% 52.2% 67.5% 45.7% 53.6% 52.3% 62.5%
Life Sciences 63.6% 100.0% 41.4% 59.5% 42.7% 63.0% 45.2% 55.9% 54.3% 63.8%
Physical Sciences/Math 54.6% 66.7% 36.4% 41.0% 45.6% 58.1% 41.8% 52.3% 48.0% 54.3%
Social Sciences 29.6% 20.0% 33.6% 50.7% 28.2% 48.2% 35.4% 48.5% 41.1% 55.4%
Humanities 29.2% 71.4% 34.7% 53.7% 28.1% 46.5% 33.1% 55.4% 35.9% 55.3%
Source: Council of Graduate Schools, Ph.D Completion Project Data
Council of Graduate Schools www.cgsnet.org
Other Research Areas
Effectiveness of undergraduate research in steering undergraduates toward graduate school
Effectiveness of teaching and curriculum (motivation, persistence, and problem solving ability)
Undergraduate and graduate institution transformation
Summary of Implications of Research for Intervention Programs
Examine faculty mentoring practice --- more of a focus on (a) research productivity, (b) strengthening students’ belief in their ability to perform, (c) helping them to continually clarify career goals and path
Examine the effectiveness of undergraduate research programs
Examine curriculum and teaching practices
***Academic preparation and support for students in core courses
***Course articulation with knowledge and skills needed during the graduate school years
Implications for Departments and Labs
Social Integration (Cues, environmental barriers)
Intellectual Integrations
Early detection of switchers and leavers
Attention to financial aid and debt burden
Attention to family/work balance
Data collection and evidence that programs and practices are working
Faculty professional development as related to mentoring, research on interventions, diversity, and data collection
Implications for Institutional Leaders
Diversity conscious policies and practices
Building a data collection infrastructure
Supporting departmental efforts