anthony s. bryk sheeo annual meeting washington, d.c. … 1100 anthony bryk.pdf · deliberate...

44
Anthony S. Bryk SHEEO Annual Meeting Washington, D.C. July 9, 2013

Upload: vanlien

Post on 16-Apr-2018

215 views

Category:

Documents


2 download

TRANSCRIPT

Anthony S. Bryk

SHEEO Annual Meeting

Washington, D.C.

July 9, 2013

SHEEO Open Letter, Fall 2012

• “Our achievements have grown more slowly than our needs and aspirations…”

• “While the U.S. has many excellent schools and colleges, our future is at risk because we have not achieved excellence at scale”

2

Triple Aims of Educational Improvement

3

EFFICIENCY

EFFECTIVENESS

ENGAGEMENT

Context: We Live in Extraordinary Times

More Efficient Systems

Ambitious Learning For All Students

More Relevance

How We Work Now: Tower of Babel Problem

4

The Educational R&D Problem

• Accelerate Improvement Efforts

• Aim for Quality, Reliably at Scale

5

Networked Improvement Communities:

What are they?

Integrating Two Big Ideas:

• The rudiments of Improvement Science

joined to

• The Power of Networks

Accelerating Learning in and through Practice to Improve

An Inspiration: Improvement Science in Healthcare

Protecting 5 Million from Harm,

Saving 100,000 Lives

8

A second source

of inspiration:

the power of

networks

Six Principles Guide the Work

(plus useful tools to scaffold the activity)

9

Taken Together:

• Disciplined Inquiry

• Rudiments a scientific community

• Aim: systematic practice improvement

I. Problem- & User-Centered

• What is the specific problem we’re trying to solve?

• What we tend to do now: a general issue comes into view and we jump on solutions

The Organizing Problem: Poor Completion Rates from

Developmental Math to College-level Credit

12

The Community College NIC , 2013

40 Community Colleges

4 State

Universities 11 States

A Solution Framework: Integrated Pathways

13

Through college-level statistics

“To-and-through” college-level

quantitative reasoning

Two 1-year pathways “to and through college math”

1

2

II. Variation in Performance is the problem to solve

• Typical question asked: “Does it Work?”

• 50 years of educational intervention

– Most everything can be made to work somewhere and nothing work everywhere

First Year Results:

Statway vs. Traditional Sequence

Variation in Performance is the problem to solve

• Yes it can work, but…

• Real Issue: Quality Improvement Question

“How to advance effectiveness among diverse faculty engaging varied populations of students and working in different organizational contexts?”

• Goal: Achieve efficacy with reliability at scale

0

10

20

30

40

50

60

70

80

90

100

Entered Statway- Term 1

Finished Term 1 Passed Term 1(C or better)

Entered Term 2 Passed Term 2(C or better -

College credit)

Pe

rce

nt

Tracking the progress of a cohort over time

Statway Performance

Historical performance

Variability in Performance: Can we do better?

Shrinking the learning gap: an improvement challenge?

III. See the System to Improve it

• Put simply: It is hard to improve what we do not fully understand.

The Orienting Problem

Embedded literacy and language barriers

Extraordinarily high failure rates among students assigned to developmental math instruction

Lose large # of students at the transitions

Consolidate the courses into a 1-year pathway

Students mindsets undermine success

Real world problems from statistics as the organizer

Students “gone” before we know it

Psycho-social interventions aimed at “productive persistence”

Rapid analytics capacity

Course material are not engaging

Faculty development

A Community Explicates its Causal Thinking:

Root Cause Analysis

Primary Causes for High Failure Rates

Organizing Improvement Hypotheses

Eventually leads to a “Pathways Strategy”

Pathways

Driver

Diagram:

Organizing a Networked Improvement Community

Aim: increase from 5% to 50%, students achieving college math credit within one year of continuous enrollment

Instructional

System: Organized around productive struggle, explicit connections, and

deliberate practice.

Productive

Persistence:

Students develop skills and maintain positive mindsets

Language and

Literacy: Students use language in understanding

problems, reason mathematically, and communicate results

Advancing

Teaching: Effective teaching within 2

years of implementation

Reduce transitions + assure enrollment across semesters

Deliberate focus on “Starting Strong”

Promote students’ ties to peers, faculty,

pathway

Math that matters: students see material interesting, relevant

Enhance faculty’s beliefs and relational

practices

Opening lessons engage interest, assure early

success

Direct interventions to influence student mindsets

Real-time data tracking on student engagement

Detail supportive classroom norms and

social connections

Professional development on “Starting Strong”

A Community Explicates its Causal Thinking:

A Community Explicates its Causal Thinking:

A Driver Diagram

Pathways

Driver

Diagram:

Organizing a Networked Improvement Community

Aim: increase from 5% to 50%, students achieving college math credit within one year of continuous enrollment

Instructional

System: Organized around productive struggle, explicit connections, and

deliberate practice.

Productive

Persistence:

Students develop and maintain

positive mindsets

Language and

Literacy: Students use language in understanding

problems, reason mathematically, and communicate results

Advancing

Teaching: Effective teaching within 2

years of implementation

Reduce transitions + assure enrollment across semesters

Deliberate focus on “Starting Strong”

Promote students’ ties to peers, faculty,

pathway

Math that matters: students see material interesting, relevant

Enhance faculty’s beliefs and relational

practices

Opening lessons engage interest, assure early

success

Direct interventions to influence student mindsets

Real-time data tracking on student engagement

Detail supportive classroom norms and

social connections

Professional development on “Starting Strong”

Elaborating Out The Driver Diagram

Productive Persistence

IV. You cannot improve at scale what you cannot measure

• Measureable targets: “Some is not a number;

soon is not a time”--Valued outcome measures

– But, you just can not stand at the end of the line.

• We need process measures tied to intermediate targets.

Productive Persistence

Supportive social relationships

Target: How do we measure it?

Mindsets about the value of math

Mindsets about potential to learn

math

Anxiety Regulation

Study Skills Conceptual Task: reduce to 5 core ideas

focus on underlying malleable causes + change evidence

Practical Measurement:

reduce 900 items to 26 “you have 3 minutes”

V. Accelerate Improvement: Embrace Disciplined Inquiry

• The Romance of the Silver Bullet – We move quickly to large scale implementation, but…

• We typically don’t know whether: – We can make these ideas work at all;

– We have capacity and will to execute with efficacy at scale.

• Instead, a DEED orientation – Quick, minimally intrusive, an empirical warrant

– Mantra: Learn Fast, Fail Fast, Improve Fast!

A System of Social Learning to Improve

Targeted Psychological Interventions (Alpha Labs)

Will they work for community college students, and if so,

how?

Expert Practitioner Knowledge

(Subnet)

How can we build on clinical knowledge of effective instructional

practices?

Learning from Network Data

(Hub Analytics)

How do we improve outcomes related to difficult drivers we

know are important?

33

Targeted Psychological Interventions

(Alpha Labs)

• Will they work for community college students, and if so,

how?

Initial Alpha Lab: Mindset Intervention

• A carefully designed experimental intervention has changed student mindsets.

• But just because an intervention can work in one setting does not mean it will work in another.

• Need to engineer it to “fit” in instructional contexts.

– Conduct rapid R&D using DEED methodology.

– “Smell testing”

– 4 months from small-scale test to larger scale use.

Rapid Iterative DEED cycles

• Research-Practitioner Team

• Testing – Small double-blind randomized

trial in Algebra course (n = 26)

– Larger double-blind experiment (n = 288)

• Introduce to faculty network, carefully study emerging results, continue to revise, refine, and extend.

35

Roberta Carew,

Statway faculty

Valencia College

36

Learning from Network Data

(Hub Analytics)*

• How do we improve outcomes related to

difficult drivers we know are important?

• Capitalizing on practical measures

* Also conduct 90 day cycles.

37

1. Assessing Change: Initial Evidence of Efficacy

of Starting Strong Package

2. Predictive Analytics—targeting support

(a simple at-risk indicator scoring 5 key items/item clusters-day 1)

38

% of who failed the end-of-term common assessment

3. NIC Priority Setting: What can we do about

belonging uncertainty?

39

Connections to Stereotype Threat?

12% 13% 14%

28%

40%

7% 11%

14%

50%

71%

0%

10%

20%

30%

40%

50%

60%

70%

80%

Never Hardly Ever Sometimes Frequently Always

Pat

hw

ays

Dro

po

ut

All students Black students

“How often, if ever, do you wonder: ‘Maybe I don't belong here?’”

N = 714 math students

Students feel

socially tied to

peers, faculty, and the course.

41

Expert Practitioner Knowledge

(Subnet)

How can we build on clinical knowledge about

effective instructional practices that amplify and extend student success mindsets ?

PDSA Cycle: Rapid, Small Experimental Trials

PLAN DO

ACT STUDY

The Three Questions: • What specifically are we trying to accomplish?

• What change might we introduce?

• How will we know that the changes are an improvement?

Improving Instructional Routines in Support

of Productive Persistence: PDSA Cycles

• Faculty routines and email scripts re: absent students

• Student group noticing routine

• Effective scaffolding for group roles (rich problems)

43

Sample Run Chart for a PDSA Cycle (Student Group Noticing Routine)

0%

20%

40%

60%

80%

100%

120%

1/14/13

1/21/13

1/28/13

2/4/13

2/11/13

2/18/13

2/25/13

3/4/13

3/11/13

3/18/13

3/25/13

4/1/13

4/8/13

4/15/13

4/22/13

4/29/13

Percen

tofS

tude

ntinA

enda

nce

A endance(ByDay)

Typicala endance

Observeda endance

n=44Median:

0.85

Median

A Developmental Dynamic

Hunches Theories

Ideas Initiating Resources

P D

S A

P D

S A

P D

S A P D

S A

Moving out toward More diverse conditions:

“factor of 5 rule of thumb”

Aiming for Efficacy with Reliability at

Scale

VI. Accelerate Improvement: Tap the Power of Networks

• A source of innovation – Dig into the details: what worked, how, for whom?

– Can we adaptively integrate this into other contexts?

• Multiple fast replication – Can we make this happen with efficacy, reliably at

scale?

• Improvement diffusion—it is largely about who is connected to whom and what they think and do

A Learning Educational System

A A

Improvement Networks Need Hubs to Accelerate Learning in Practice for Improvement

A

B

A

A A

B

A

A A

B

A

A A

B

C

(Englebart,1994)

Conclusion: A Strong Contrast to An

Increasingly Popular View

• Performance management

– Set targets

– Create incentives

– Collect data/dashboards

– Hold individuals accountable

• No working theory of improvement, tied to measures, tied to processes

“Go figure it out on your own or else…”

50

We can

accomplish more

together, than

even the best of us

can do alone.

Complex systems

problems that we

now seek to solve

Implications for Transformative Leadership

• Focus on a small number of high leverage problems

• Encourage formation of improvement networks (+hubs)

• Embrace the the dynamic of a science at work--theory, measurement and common practices

• Motivate: an ennobling vision of a professional community engaged in its own practice improvement.

We are all learners, all improvers 51

It is all about accelerating how we learn

in and through practice to improve.