Ten Knowledge Foundations
Implementation science and knowledge mobilization draw from multiple disciplines. Effective practice requires fluency across all ten bodies of knowledge below — though the emphasis shifts depending on whether you are working as a researcher, practitioner, knowledge broker, evaluator, or organizational leader. For learning designers, the entry point is recognizing that the analytical work you already do — diagnosing performance gaps, mapping systems, designing for transfer — is implementation science work, even if it has not been named as such.
Behavioural & Social Sciences
Theories of human behaviour, motivation, attitude change, and social influence underpin how individuals and groups adopt new practices. Key frameworks include the Theory of Planned Behavior, Social Cognitive Theory, and Rogers' Diffusion of Innovations — all of which structure the analysis of why evidence-based practices do or do not take hold in real systems.
Organizational Theory & Change Management
Understanding how organizations function, resist or embrace change, and how leadership, culture, and structure affect the uptake of evidence-based practices. Frameworks such as Kotter's 8-Step model, Lewin's change stages, ADKAR, and the Organization Theory for Implementation Science (OTIS) framework provide the structural language for this work.
Systems Thinking & Complexity Science
Implementation occurs in dynamic, adaptive systems — not linear pipelines. Tools like causal loop diagrams, Peter Senge's Five Disciplines model, and stock-and-flow analysis help practitioners anticipate unintended consequences, identify leverage points, and design interventions that account for system-level feedback rather than isolated components.
Research Methodology & Evidence Synthesis
Competency in systematic reviews, meta-analyses, realist synthesis, and mixed-methods research enables practitioners to appraise, synthesize, and translate evidence appropriately. In implementation science, both internal validity (causal rigour) and external validity (generalizability to real-world settings) are essential considerations — and often in tension.
Implementation Frameworks & Models
Mastery of core frameworks — including the Consolidated Framework for Implementation Research (CFIR), Exploration–Preparation–Implementation–Sustainment (EPIS), and Reach–Effectiveness–Adoption–Implementation–Maintenance (RE-AIM) — structures implementation planning, diagnosis, and evaluation. These frameworks are not interchangeable: each serves a distinct analytical purpose.
Knowledge Translation & Exchange (KTE)
Knowledge translation encompasses the theories and practices governing how knowledge moves between researchers and practitioners — including co-production, boundary spanning, and knowledge brokering. The Knowledge to Action (K2A) Framework describes a cyclical process of knowledge creation and application that is directly relevant to learning design practice.
Evaluation & Improvement Science
Methods for measuring fidelity, process, and outcome — combined with quality improvement approaches such as Plan–Do–Study–Act (PDSA) cycles — enable practitioners to refine implementation in real time. Evaluation designed into a program from the outset produces fundamentally different data than evaluation added after launch.
Communication, Dissemination & Diffusion
The science of how innovations spread through social systems — including Rogers' Diffusion of Innovations — and the distinction between passive dissemination (publishing guidelines) and active dissemination (technical assistance, decision-support tools, tailored messaging) are foundational to knowledge mobilization practice.
Health Equity, Ethics & Context Sensitivity
Understanding how power, privilege, structural racism, and social determinants shape who benefits from implementation — and who is systematically excluded — is not peripheral to the field. Centering equity and cultural safety in design and delivery is an implementation science requirement. Decolonizing data frameworks and Indigenous evaluation principles are increasingly recognized as essential, not optional, dimensions of rigorous evaluation design.
Leadership, Facilitation & Capacity Building
Implementation science is ultimately practiced through people. Skills in coaching, technical assistance, team facilitation, and building organizational and individual capacity to sustain evidence-based practices over time are the interpersonal infrastructure that technical expertise alone cannot replace.
Why the Knowledge-to-Practice Gap Is the Central Problem
The founding insight of implementation science is that knowledge generation and knowledge use are separate problems requiring separate disciplines. Across nearly every domain where evidence-based practices exist — health, education, social services, public policy — the binding constraint is rarely the absence of good evidence. It is the failure to reliably get that evidence into practice. Implementation science exists to close that gap systematically rather than by chance.
For learning designers, this framing reorients the work. A well-designed learning program that transfers evidence into practitioner capability is itself a form of knowledge mobilization. A training system that introduces an evidence-based practice to frontline staff is an implementation vehicle. Whether the learning infrastructure is designed with implementation science in mind — or designed in its absence — determines whether the evidence reaches practice or remains on a shelf.
The Field Is Deeply Interdisciplinary by Design
These ten bodies of knowledge are interconnected, not sequential. Effective implementation scientists and knowledge mobilization practitioners typically work across all of them, tailoring emphasis to context. Fields like healthcare, education, social services, and public policy each stress different combinations — but the integrative, applied nature of the discipline demands fluency across the full set. The practitioner who can move between a causal loop diagram, a systematic review, a stakeholder engagement strategy, and an equity analysis within a single project is not a generalist without depth. They are what the field needs.
Core Frameworks: CFIR, EPIS, and RE-AIM
Implementation frameworks are not interchangeable. Each was designed to answer a different question about the implementation process. Understanding what each framework does — and what it does not do — is the prerequisite for selecting and applying them appropriately. The three frameworks described here are the most widely used in the field; combining them, where justified, yields complementary rather than redundant insight.
CFIR synthesizes constructs from multiple implementation science sources into a comprehensive diagnostic framework organized around five major domains: intervention characteristics (what is being implemented), outer setting (the broader policy, community, and system environment), inner setting (organizational culture, leadership, and infrastructure), characteristics of individuals (knowledge, beliefs, and roles of implementers), and implementation process (the activities and strategies driving adoption).
CFIR's primary value is diagnostic: it helps practitioners identify the specific factors — within an organization and across its environment — that are likely to facilitate or impede implementation. This makes it the right framework to apply at the planning stage, before strategies are selected. CFIR 2.0, an updated iteration, refines several constructs and adds explicit attention to equity and stakeholder engagement.
- Identification of modifiable factors that can promote or hinder adoption
- Structured assessment of organizational readiness before implementation begins
- A common language for discussing implementation barriers across stakeholder groups
- Basis for selecting tailored implementation strategies matched to identified determinants
EPIS provides a phased approach to understanding implementation across four stages. Exploration involves assessing organizational need, fit, and capacity before committing to an intervention. Preparation covers planning, adaptation, and stakeholder alignment before launch. Implementation addresses active delivery, fidelity monitoring, and barrier response. Sustainment focuses on the conditions required to maintain the practice after initial implementation energy has dissipated.
EPIS is particularly valuable for learning designers because it maps naturally onto the design process: exploration parallels needs analysis, preparation parallels instructional design, and the sustainment phase addresses the most common failure mode in organizational learning — programs that work while the designer is present and collapse when they are not.
- A structured way to think about what is needed at each phase of implementation
- Explicit attention to the inner setting (organizational factors) and outer setting (system factors) at each phase
- A planning frame that situates sustainment as a design problem, not an afterthought
- Identification of stakeholder engagement requirements that shift across phases
RE-AIM shifts the evaluation question from "did the intervention work under ideal conditions?" to "what is its actual impact at scale?" Its five dimensions — Reach (who participated, and who was excluded), Effectiveness (outcomes for participants), Adoption (uptake by settings and practitioners), Implementation (fidelity and consistency of delivery), and Maintenance (sustained use over time) — together produce a comprehensive picture of real-world public health impact.
For learning designers, RE-AIM makes visible what standard evaluation frameworks often miss: the gap between program effectiveness for participants who completed it and population-level impact, which depends on who was reached, how consistently it was delivered, and whether it persisted. A program with strong Level 1 and Level 2 outcomes that reaches only the most engaged learners and disappears after six months has not solved the implementation problem.
- A balanced view of internal validity (effectiveness) and external validity (reach and adoption)
- Explicit measurement of who the program did not reach — which is often the equity question
- Evaluation of fidelity as a distinct dimension from outcome measurement
- A framework for assessing sustainability that is grounded in empirical data, not intention
Beyond the three primary frameworks, several others address specific implementation dimensions. Promoting Action on Research Implementation in Health Services (PARIHS) posits that successful implementation is a function of evidence, context, and facilitation — a formulation that resonates directly with learning design practice. Normalization Process Theory (NPT) focuses on the social processes through which new practices become embedded in routine — particularly relevant when designing for sustained behavior change rather than one-time adoption.
The Theoretical Domains Framework (TDF) synthesizes constructs from multiple behavior change theories into 14 domains addressing individual and collective determinants of behavior — making it a useful diagnostic for understanding why practitioners do or do not change practice. The Knowledge to Action (K2A) Framework describes a cyclical process of knowledge creation and application that maps directly onto knowledge translation design.
- Use CFIR to diagnose contextual determinants at the planning stage
- Use EPIS to sequence and structure implementation activities across phases
- Use RE-AIM to evaluate population-level impact and guide scale-up decisions
- Use TDF to analyze individual-level barriers to behavior change among practitioners
- Use NPT to understand and support the normalization of new practices in routine
How Implementation Unfolds: A Practitioner's Map
Implementation science treats the adoption of evidence-based practice as a structured, iterative process with distinct phases — not a linear rollout from research to practice. The stages below integrate the EPIS phased model with practical considerations for learning designers working within health, education, and social sector organizations. Understanding the full arc clarifies what is gained or lost when particular phases are abbreviated.
Implementation begins before any program is designed. The exploration phase assesses organizational readiness, fit between the evidence-based practice and the receiving context, and the inner and outer setting factors that will shape adoption. This includes organizational culture, leadership alignment, available resources, staff capacity, policy environment, and community context.
For learning designers, this phase is the implementation science equivalent of needs analysis — but with an expanded diagnostic scope. The question is not only "what do learners need to know?" but "what does this organization need to have in place for new practice to take hold, persist, and spread?" CFIR provides the most comprehensive diagnostic structure for this phase.
- An assessment of organizational readiness across inner and outer setting factors
- Identification of the specific barriers and facilitators likely to shape implementation
- A determination of whether the evidence-based practice is a good fit for this context — or requires principled adaptation before launch
- A shared understanding among stakeholders of what implementation will require
Meaningful stakeholder engagement is not a consultation step added to a pre-designed implementation plan — it is the process through which implementation is shaped by those whose context, knowledge, and participation determine whether it succeeds. This includes practitioners who will deliver the program, community members who will be affected, and organizational leaders who will resource and support it.
The engagement intensity spectrum ranges from informing (sharing plans) to co-design (shared decision-making over program structure, adaptation, and evaluation). Co-design is particularly important when designing for communities whose experience is not well-represented among the design team — and when the goal is community ownership of implementation that survives leadership transitions and funding cycles. Disability justice and decolonization frameworks name the power dynamics in engagement processes explicitly, which is necessary for producing evaluations that are genuinely equitable rather than performatively inclusive.
- A stakeholder map identifying whose involvement is needed and at what intensity
- An engagement plan with designed processes for meaningful participation across implementation phases
- Community ownership of program elements that ensures sustainability beyond project funding
- Identification of equity considerations in design, delivery, and evaluation from the outset
Evidence-based practices are typically developed in one context and implemented in others. The central fidelity question is: which elements of the original program are the active ingredients — the components through which outcomes are produced — and which are surface features that can be adapted to local context without compromising effectiveness?
Fidelity is not the same as rigid replication. Principled adaptation — modifying programs deliberately and transparently to fit local populations, resources, and cultural contexts, while preserving core mechanisms — is a recognized and necessary implementation practice. The failure mode is not adaptation per se; it is undocumented, unevaluated adaptation that erodes outcomes without practitioners realizing it. Documenting adaptations systematically allows what is learned in one implementation to inform others.
- Identification of the core components (active ingredients) of the evidence-based practice
- A written adaptation plan documenting what was changed, why, and for whom
- Fidelity monitoring tools integrated into delivery — not added after launch
- A shared understanding among implementers of what delivery fidelity looks like in practice
This is the phase where learning design and implementation science most directly converge — and where the design gap is most consequential. An evidence-based intervention can be excellent and its evidence strong, but if the training system that prepares practitioners to deliver it is poorly designed, delivery will be inconsistent, fidelity will erode, and outcomes will disappoint. The training system is not a supplement to implementation; it is implementation infrastructure.
Effective training system design for implementation includes: a competency framework that specifies what practitioners must know, believe, and be able to do; instructional design for skill-based practice rather than knowledge transmission; fidelity support structures including observation, feedback, and supervision; and transfer conditions that account for the organizational environment practitioners return to after training. The 70-20-10 model is a useful heuristic here — most practice development in implementation contexts occurs through supervised experience and peer learning, not formal instruction alone.
- A competency framework specifying what practitioners need to deliver the intervention with fidelity
- Training materials designed around skill development, not information transfer
- A supervision and coaching structure that supports ongoing fidelity after initial training
- Transfer conditions designed into the program — not assumed to exist in the environment
Implementation science distinguishes between clinical or program outcomes (did the target population benefit?) and implementation outcomes (was the intervention delivered as intended, to whom, at what coverage?). Both are necessary. Most programs measure only the first and then cannot explain why scale-up fails. Proctor's eight implementation outcomes provide the measurement framework: acceptability, adoption, appropriateness, feasibility, fidelity, implementation cost, penetration, and sustainability.
For learning designers, this reframes evaluation design significantly. The Kirkpatrick Four Levels measure learner outcomes (Levels 1–2) and transfer (Levels 3–4) — which are valuable but incomplete. Implementation outcome measurement additionally asks: did the program reach the practitioners who most needed it? Was it delivered consistently across sites? What did it cost per unit of fidelity achieved? Is it still running in six months? Designing mixed-method measurement systems that capture both sets of questions produces data that can inform scale-up decisions rather than just post-program reports.
- A measurement plan spanning Proctor's eight implementation outcomes, with methods for each
- Data collection instruments integrated into delivery workflows — not added afterward
- Clear distinction between implementation outcome data and clinical or learning outcome data
- Findings that can inform adaptation, scale-up, and sustainability decisions
The single most common implementation failure mode is program discontinuation when initial funding ends — not because the program failed, but because sustainability was never designed. Effective sustainment planning begins at the exploration phase, not the close-out phase. It covers how organizational ownership is built (rather than project-level ownership that disappears with the project), how resource dependency is reduced over time, and which policy and funding levers can move a program from pilot to permanent infrastructure.
Sustainability is not merely continuation — it is dynamic adaptation. Programs that survive do so because they remain responsive to evolving context, leadership, and community need. A PDSA-based continuous improvement cycle, embedded in the implementation design from the outset, is more likely to produce sustainable programs than programs designed as finished products.
- A sustainability plan addressing organizational ownership, resource requirements, and risk factors
- Identified policy and funding levers for long-term institutionalization
- A continuous improvement mechanism that maintains program responsiveness after initial implementation
- Explicit transition planning from project-funded to organizationally embedded delivery
Core Competencies in Implementation Science & Knowledge Mobilization
The competencies below span three dimensions: knowing (theory and evidence), doing (methods and practice), and being (values, relationships, and professional identity). The most effective practitioners integrate all three, adapting their emphasis depending on whether they are working as researchers, practitioners, knowledge brokers, evaluators, or system leaders — roles that frequently overlap within a single career.
Theoretical Fluency
Deep familiarity with implementation theories, models, and frameworks — including CFIR, EPIS, RE-AIM, Diffusion of Innovations, and the Theoretical Domains Framework — and the ability to select and apply them appropriately to context rather than defaulting to a single preferred framework regardless of the question being asked.
Evidence Appraisal
The ability to critically assess research quality, synthesize evidence across study designs, and judge the applicability of findings to real-world settings — including the capacity to distinguish between what an intervention produces under ideal trial conditions and what it is likely to produce in the target context.
Contextual Analysis
Skill in assessing the inner and outer setting of an implementation — organizational culture, leadership readiness, available resources, staff capacity, policy environment, and community context. This is the implementation science parallel to needs analysis: the diagnostic foundation on which effective strategy selection depends.
Mixed-Methods Research Design
Proficiency in combining qualitative and quantitative methods to capture both "what works" and "why and how it works" in implementation. Qualitative methods illuminate stakeholder experience and contextual barriers that quantitative metrics alone cannot surface. Both are necessary for rigorous implementation evaluation.
Implementation Outcome Measurement
The ability to design and use measurement systems for Proctor's eight implementation outcomes — acceptability, adoption, appropriateness, feasibility, fidelity, implementation cost, penetration, and sustainability — systematically and in distinction from clinical or program outcome measurement.
Process & Improvement Evaluation
Competency in formative evaluation, rapid-cycle learning, and quality improvement methods — including PDSA cycles — to adapt implementation strategies in real time rather than waiting for summative findings that arrive too late to inform practice.
Data Literacy & Analytics
Skill in collecting, managing, interpreting, and communicating data to diverse audiences — including the use of administrative and routinely collected data. Translating data into actionable implementation decisions is a distinct competency from collecting it.
Knowledge Brokering
The ability to bridge the gap between researchers and practitioners — translating, packaging, and contextualizing evidence so it is actionable for decision-makers who did not produce it and may not have the time or training to appraise it directly. Knowledge translation is a design problem; most organizations treat it as a communication problem, which is why it fails.
Co-Production & Participatory Practice
Skill in engaging communities, service users, practitioners, and policymakers as genuine partners in generating and applying knowledge — not as recipients of pre-designed solutions. The distinction between consultation and co-design is consequential in implementation contexts where community ownership determines sustainability.
Dissemination & Communication
The ability to tailor messages, formats, and channels — policy briefs, infographics, plain-language summaries, academic papers, professional development resources — to specific audiences and purposes. Effective dissemination is active, not passive: it requires direct engagement with target users, not the publication of materials and the hope that they will be found.
Stakeholder Engagement & Partnership Development
Competency in identifying, convening, and sustaining meaningful relationships with diverse stakeholders across sectors and systems — including the capacity to navigate competing priorities and power dynamics without losing the analytical and ethical clarity that makes engagement substantive rather than performative.
Implementation Planning & Strategy Selection
The ability to design implementation plans, select evidence-based implementation strategies — including from compilations such as the Expert Recommendations for Implementing Change (ERIC) — and sequence activities appropriately across the EPIS phases. Strategy selection should be matched to identified determinants, not chosen by preference.
Facilitation & Coaching
Skill in guiding teams and organizations through implementation processes — including problem-solving barriers, building buy-in among resistant stakeholders, and sustaining momentum across the implementation lifecycle. Facilitation in implementation contexts is structured sense-making under uncertainty, not information delivery.
Adaptation & Fidelity Balancing
Competency in making principled adaptations to innovations to fit local context while preserving the core components that drive outcomes — and documenting those adaptations systematically so that the learning travels. Knowing when adaptation is legitimate and when it constitutes outcome-eroding drift is one of the most consequential practical judgments in implementation.
Sustainability & Scale-up Planning
The ability to plan for long-term sustainment from the outset — addressing resource dependency, building organizational ownership, and designing for spread across sites or systems. Programs that are not designed to sustain rarely do, regardless of their effectiveness during the project period.
Systems Thinking
The ability to map stakeholder networks, identify leverage points, anticipate feedback loops, and navigate complexity rather than treating implementation as a linear rollout. Implementation occurs in dynamic systems; the practitioner who can reason about the whole — not just optimize each component — produces more durable results.
Equity-Centred Practice
Competency in identifying how structural inequities shape implementation processes and outcomes — and intentionally designing for equity in access, experience, and benefit from the outset. Equity is not a downstream consideration; it is a design requirement. Applying principles such as OCAP (ownership, control, access, and possession) in data design, and incorporating Indigenous evaluation frameworks where appropriate, reflects this commitment in practice.
Collaborative Leadership
The ability to lead without formal authority, build shared vision across organizational levels, and foster psychological safety in cross-disciplinary teams — where practitioners, researchers, community members, and policymakers must work together on problems none can solve alone.
Cultural Humility & Relational Practice
An ongoing commitment to self-reflection, learning, and centering the expertise and lived experience of those most affected by implementation efforts — particularly in contexts where the implementer's background and the community's experience differ substantially. Cultural humility is a practice, not a credential.
Reflexivity & Continuous Learning
A commitment to ongoing critical reflection on one's own assumptions, positionality, and practice — essential in a field where context is everything and where the practitioner's perspective inevitably shapes the questions asked, the data collected, and the solutions proposed.
Where Implementation Science Has Greatest Impact
Implementation science matters most where the gap between available evidence and actual practice is largest — and where the consequences of that gap are most severe. The domains below were identified by applying a framework that prioritizes problems by scale (how many people are affected), neglectedness (how few resources are directed at the implementation dimension specifically), and tractability (how solvable the implementation problem is with additional effort). For learning designers, these domains represent the contexts where the skills of the field can be most consequentially applied.
Global Health & High-Burden Disease
The gap between what we know works and what gets delivered in low- and middle-income countries is enormous. Evidence-based interventions for malaria, tuberculosis, HIV, and maternal and child mortality exist but are chronically under-implemented. Implementation science here operates at massive scale — millions of preventable deaths annually — and the tractability is high because delivery systems, though strained, exist.
Mental Health at Scale
Mental health conditions account for a staggering share of global disability, yet the treatment gap exceeds 75% in many countries. Task-shifting models, digital therapeutics, and community-based interventions exist but are poorly implemented. Knowledge mobilization here has transformative potential given the scale of unmet need — and training system design is the critical bottleneck.
Evidence-Informed Policymaking in Low- and Middle-Income Countries
Strengthening the capacity of governments to generate, absorb, and act on evidence is a high-leverage meta-investment. When policymaking systems become more evidence-responsive, every subsequent intervention — in health, education, agriculture, and social protection — becomes more likely to be implemented well.
Pandemic & Health Security Preparedness
COVID-19 exposed catastrophic failures not in knowledge generation but in knowledge mobilization — vaccine hesitancy, inconsistent guideline adoption, fragmented health system response. Implementation science applied proactively to preparedness infrastructure offers enormous leverage: getting proven protocols into systems before the next crisis.
AI Safety & Responsible Deployment
As AI systems move rapidly from research to deployment, the implementation science question — how do organizations reliably adopt, adapt, and govern AI tools in ways that are safe and equitable — is deeply neglected. The field has strong technical capacity but weak implementation and diffusion infrastructure. Learning design expertise is directly transferable here.
Education Systems Transformation
Hundreds of millions of children globally receive schooling that produces minimal learning. Evidence-based pedagogical practices exist but fail to penetrate at scale. Implementation science applied to education — particularly in low- and middle-income countries — could affect life trajectories for enormous numbers of people.
Scaling Effective Social Programs
In high-income countries, significant public investment goes into social programs — early childhood intervention, addiction treatment, housing-first models, family support services — with highly variable fidelity and outcomes. The "what works" knowledge base is substantial but the implementation infrastructure is fragmented.
Climate Change Implementation
The evidence base for effective climate interventions is growing rapidly, but implementation into policy and practice lags badly. Knowledge mobilization between climate scientists, policymakers, and communities is a critical bottleneck — and one that implementation science and learning design are well positioned to address.
What Rigorous Implementation Design Produces for Organizations
At the organizational level, investment in implementation science competencies produces concrete and measurable returns. Programs reach the people who most need them — rather than defaulting to the easiest-to-reach participants. Evidence-based practices are delivered with fidelity — not just adopted in name while drifting from the components that make them work. Evaluation infrastructure is built into programs from the start — producing data that can inform adaptation and scale-up, not just document completion. Sustainability is designed rather than assumed — so that programs that work during a project period are more likely to continue after it ends.
The longer-term institutional benefit is a shift in how the organization relates to evidence: from occasional consumers of research to active knowledge mobilization practitioners who can systematically connect evidence to practice and generate new evidence through rigorous implementation. This is not a cultural shift that happens through a single training program. It is the result of sustained investment in implementation science capacity at the individual, team, and organizational levels simultaneously.
Where Are You in This Work?
This reflection is designed to help you identify where your current practice most closely aligns with implementation science — and where the most productive investments in your development might lie. There are no right or wrong answers. Choose the response that most honestly reflects your current situation, not where you aspire to be.
Academic & Professional Citations
The knowledge claims, frameworks, and evidence in this resource draw on established scholarship and professional practice in implementation science, knowledge mobilization, systems thinking, organizational change, and equity-centred evaluation. Sources are grouped by the area of the resource they primarily support.
Damschroder, L. J., Aron, D. C., Keith, R. E., Kirsh, S. R., Alexander, J. A., & Lowery, J. C. "Fostering Implementation of Health Services Research Findings into Practice: A Consolidated Framework for Advancing Implementation Science." Implementation Science, 4(1), 50, 2009.
Moullin, J. C., Dickson, K. S., Stadnick, N. A., Albers, B., Nilsen, P., Broder-Fingert, S., Mukasa, B., & Aarons, G. A. "Ten Recommendations for Using Implementation Frameworks in Research and Practice." Implementation Science Communications, 1(1), 42, 2020.
Glasgow, R. E., Vogt, T. M., & Boles, S. M. "Evaluating the Public Health Impact of Health Promotion Interventions: The RE-AIM Framework." American Journal of Public Health, 89(9), 1322–1327, 1999.
Nilsen, P. "Making Sense of Implementation Theories, Models and Frameworks." Implementation Science, 10(1), 53, 2015. The foundational taxonomy distinguishing process models, determinant frameworks, classic theories, and evaluation frameworks.
Proctor, E., Silmere, H., Raghavan, R., Hovmand, P., Aarons, G., Bunger, A., Griffey, R., & Hensley, M. "Outcomes for Implementation Research: Conceptual Distinctions, Measurement Challenges, and Research Agenda." Administration and Policy in Mental Health and Mental Health Services Research, 38(2), 65–76, 2011.
Graham, I. D., Logan, J., Harrison, M. B., Straus, S. E., Tetroe, J., Caswell, W., & Robinson, N. "Lost in Knowledge Translation: Time for a Map?" Journal of Continuing Education in the Health Professions, 26(1), 13–24, 2006.
Straus, S. E., Tetroe, J., & Graham, I. D. (Eds.) Knowledge Translation in Health Care: Moving from Evidence to Practice. 2nd ed. Wiley-Blackwell, 2013.
Rogers, E. M. Diffusion of Innovations. 5th ed. Free Press, 2003. Foundational source for understanding how innovations spread through social systems and the characteristics that determine adoption rates.
Brownson, R. C., Colditz, G. A., & Proctor, E. K. (Eds.) Dissemination and Implementation Research in Health: Translating Science to Practice. 2nd ed. Oxford University Press, 2018.
Birken, S. A., Bunger, A. C., Powell, B. J., Turner, K., Clary, A. S., Klaman, S. L., Yu, Y., Whitaker, D. J., Self, S. R., Rostad, W. L., Chatham, J. R. S., Kirk, M. A., Shea, C. M., Haines, E., & Weiner, B. J. "Organizational Theory for Dissemination and Implementation Research." Implementation Science, 12(1), 62, 2017.
Kotter, J. P. Leading Change. Harvard Business Review Press, 1996.
Senge, P. M. The Fifth Discipline: The Art and Practice of the Learning Organization. Doubleday, 1990. Foundational source for the Five Disciplines framework, causal loop thinking, and systems thinking in organizational learning.
de Savigny, D., & Adam, T. (Eds.) Systems Thinking for Health Systems Strengthening. World Health Organization, 2009.
who.int/alliance-hpsr/resources/Cane, J., O'Connor, D., & Michie, S. "Validation of the Theoretical Domains Framework for Use in Behaviour Change and Implementation Research." Implementation Science, 7(1), 37, 2012.
May, C. R., Mair, F., Finch, T., MacFarlane, A., Dowrick, C., Treweek, S., Rapley, T., Ballini, L., Ong, B. N., Rogers, A., Murray, E., Elwyn, G., Légaré, F., Gunn, J., & Montori, V. M. "Development of a Theory of Implementation and Integration: Normalization Process Theory." Implementation Science, 4(1), 29, 2009.
Palinkas, L. A., Aarons, G. A., Horwitz, S., Chamberlain, P., Hurlburt, M., & Landsverk, J. "Mixed Method Designs in Implementation Research." Administration and Policy in Mental Health and Mental Health Services Research, 38(1), 44–53, 2011.
Cochrane Effective Practice and Organisation of Care (EPOC) Group. EPOC Resources for Review Authors. Cochrane, 2017. epoc.cochrane.org
First Nations Information Governance Centre. The First Nations Principles of OCAP®. FNIGC, 2014. fnigc.ca/ocap-training/
Smith, L. T. Decolonizing Methodologies: Research and Indigenous Peoples. 2nd ed. Zed Books, 2012.
Baumann, A. A., & Cabassa, L. J. "Reframing Implementation Science to Address Inequities in Healthcare Delivery." BMC Health Services Research, 20(1), 190, 2020.
Langley, G. J., Moen, R. D., Nolan, K. M., Nolan, T. W., Norman, C. L., & Provost, L. P. The Improvement Guide: A Practical Approach to Enhancing Organizational Performance. 2nd ed. Jossey-Bass, 2009.
Siemens, G., & Long, P. "Penetrating the Fog: Analytics in Learning and Education." EDUCAUSE Review, 46(5), 30–32, 2011.
World Health Organization. Task Shifting: Rational Redistribution of Tasks Among Health Workforce Teams: Global Recommendations and Guidelines. WHO, 2008. who.int
Brownson, R. C., Fielding, J. E., & Green, L. W. "Building Capacity for Evidence-Based Public Health: Reconciling the Pulls of Practice and the Push of Research." Annual Review of Public Health, 39, 27–53, 2018.