Wednesday, October 28, 2026

Copilot Integration

Dynamics 365 CE – Copilot Integration: End-to-End Technical

For a Dynamics 365 CE / Power Platform Technical Architect interview, you should be able to explain not only how Copilot is enabled but also how it interacts with Dataverse, how custom agents are developed, how external systems are integrated, and how security, ALM and governance are implemented.

I'll cover this from an implementation and solution architecture perspective, including a real-world scenario you can use during your interview.

1. Understand the Copilot ecosystem in D365 CE

Microsoft provides multiple AI capabilities across Dynamics 365 and Power Platform. These should not be confused with one another.

Component

Technical purpose

Dynamics 365 Copilot

Embedded AI capabilities within supported Dynamics 365 applications

Copilot Studio

Build and extend custom conversational and autonomous agents

Dataverse

Business data platform containing CRM records and relationships

Power Automate

Execute business workflows and integrations

Azure OpenAI

Build custom generative AI solutions requiring greater architectural control

Microsoft Graph

Access Microsoft 365 data through supported permissions and integrations

Power Platform Connectors

Integrate external enterprise systems

MCP

Standardized interface through which agents can discover and invoke supported tools

Architecture overview

A typical enterprise implementation looks like this:

User interaction layer

Dynamics 365 Sales | Customer Service | Model-driven App | Teams

Copilot / Copilot Studio Agent

Instructions · Topics · Generative orchestration · Knowledge · Tools

Knowledge sources

Dataverse

SharePoint

Documents

Enterprise knowledge

Action layer

Power Automate

Connectors

APIs

MCP tools

Enterprise systems

Dataverse · Azure Functions · ERP · SQL · External APIs

Conceptual solution architecture. Actual integration paths depend on the Copilot product, agent configuration and channel.

Important interview distinction: Enabling Microsoft's built-in Dynamics 365 Copilot and developing a custom Copilot Studio agent are two different implementation approaches.

2. Three approaches to integrating Copilot with Dynamics 365 CE

Approach 1 – Out-of-the-box Dynamics 365 Copilot

Native Copilot capabilities

Used when organizations want Microsoft-provided AI functionality without developing an entirely new agent.

Examples include opportunity summaries, record insights, email assistance and case summaries, depending on the Dynamics 365 application and licensing.

Implementation process:

  1. Validate application version, region, licensing and availability.

  2. Configure the required Dynamics 365 application settings.

  3. Enable supported Copilot features through the relevant administration experience.

  4. Configure Dataverse security roles and access.

  5. Review data movement, privacy and governance requirements.

  6. Validate the functionality using different user roles.

  7. Deploy configuration changes through the supported ALM process.

This is generally the quickest approach but offers less flexibility than a custom solution.

Approach 2 – Custom agent using Copilot Studio

Custom business-specific agent

Used when organizations require conversational access to CRM information, custom business logic, external integrations or controlled actions.

Example user request:

"Show my open opportunities above £50,000 that are expected to close this month."

The agent interprets the request, invokes an appropriate Dataverse query tool, retrieves permitted records and presents the results in natural language.

This is the approach you should understand particularly well for a Power Platform technical interview.

Approach 3 – Custom AI architecture using Azure OpenAI

Used for advanced scenarios requiring custom application architecture, model selection, retrieval design, API orchestration or specialized AI processing.

A typical architecture involves:

  • Dynamics 365 CE as the business application.

  • Azure Function or App Service as the backend.

  • Azure OpenAI for model inference.

  • Dataverse Web API for CRM operations.

  • Microsoft Entra ID for authentication.

  • Application Insights for observability.

Architectural recommendation: Prefer native Dynamics 365 capabilities when they satisfy the requirement. Use Copilot Studio for extensibility and business agents. Introduce a custom Azure OpenAI architecture when the additional flexibility justifies its engineering and operational cost.

3. End-to-end implementation: Build a custom Copilot agent for D365 CE

Consider this interview scenario:

Business requirement: A Sales Manager wants an AI assistant inside Dynamics 365 that can retrieve opportunity information, summarize customer activities, identify high-value opportunities and create follow-up tasks.

Step 1 – Requirement analysis and solution design

Before developing the agent, identify:

Area

Design decision

Users

Salesperson, Sales Manager

CRM tables

Account, Contact, Opportunity, Task

AI operations

Summarize, search, recommend

Business actions

Create follow-up task

Data access

Based on Dataverse security

Authentication

Microsoft Entra ID

Integration

Dataverse and Power Automate

Deployment

Dev → SIT → UAT → Production

Classify requirements into two categories:

Knowledge operations: The agent retrieves information and answers questions.

Action operations: The agent performs an operation such as creating a task or updating an opportunity.

This distinction matters because a knowledge source alone is not sufficient for executing business transactions.

Step 2 – Prepare the Power Platform environment

Navigate to Power Platform Admin Center.

Complete the following:

  1. Select or provision a Dataverse-enabled environment.

  2. Validate Copilot Studio licensing and capacity.

  3. Assign Environment Maker and relevant Dataverse roles.

  4. Review tenant-level Copilot and generative AI settings.

  5. Configure applicable Data Loss Prevention (DLP) policies.

  6. Create a dedicated solution for your agent and related components.

Example solution:

Contoso.CRM.SalesCopilot

Recommended components include the agent, agent flows, environment variables, connection references and supporting Dataverse customizations.

Step 3 – Create an agent in Copilot Studio

Navigate to Microsoft Copilot Studio.

Create a new agent with these sample details:

Property

Value

Name

CRM Sales Assistant

Description

AI assistant for Dynamics 365 Sales

Language

English

Authentication

Authenticate with Microsoft

Orchestration

Generative orchestration

Define the agent's instructions carefully.

Example:


You are a Dynamics 365 Sales Assistant.

Responsibilities:
1. Retrieve CRM account and opportunity information.
2. Summarize customer interactions.
3. Identify opportunities requiring follow-up.
4. Create CRM tasks only after user confirmation.

Rules:
- Use approved Dataverse tools.
- Never invent customer or opportunity information.
- Respect the authenticated user's permissions.
- Request clarification when records are ambiguous.
- Do not update or delete CRM records without confirmation.
- Return concise, business-friendly responses.

Remember: Instructions guide agent behavior but are not a replacement for backend authorization and validation.

Step 4 – Connect Dataverse as a knowledge source

In Copilot Studio:

  1. Open your agent.

  2. Navigate to Knowledge.

  3. Select Add Knowledge.

  4. Choose Dataverse.

  5. Select the required CRM tables.

  6. Provide meaningful knowledge descriptions.

  7. Save and test.

For example, add Account, Contact and Opportunity.

Dataverse Search must be enabled, and Dataverse knowledge sources require Microsoft authentication.

Microsoft Learn+1

Interview question: Why do we need Dataverse Search?

Because the agent uses the supported Dataverse knowledge retrieval mechanism to ground responses in CRM information instead of relying exclusively on the language model's general knowledge.

For deterministic transactional queries involving precise filters, totals or calculations, prefer an explicit Dataverse query tool rather than relying on a natural-language knowledge response.

Step 5 – Create business actions using Power Automate

Now implement an action that creates a follow-up task in CRM.

Example conversation:

User: "Create a follow-up task for the ABC Ltd opportunity for tomorrow."

Agent: "Please confirm. Should I create the task for the ABC Ltd opportunity?"

User: "Yes."

The agent invokes a Power Automate agent flow.

Technical flow

1.

Copilot Studio – invokes CreateFollowUpTask tool

2.

Power Automate – receives structured parameters

3.

Dataverse – validates opportunity and authorization

4.

Dataverse – creates Task record

5.

Power Automate – returns Task ID and status

6.

Copilot – presents confirmation to the user

Define the flow inputs:

Parameter

Type

OpportunityId

GUID/String

Subject

String

DueDate

Date/String

Description

String

Within Power Automate, configure:

  • Trigger: When an agent calls the flow.

  • Dataverse: Get opportunity record.

  • Validation: Check the opportunity and supplied inputs.

  • Dataverse: Add a new row in the Task table.

  • Set the regarding lookup to the relevant opportunity.

  • Return structured output to the agent.

Sample output:


{
  "success": true,
  "taskId": "00000000-0000-0000-0000-000000000001",
  "message": "Follow-up task created successfully"
}

The GUID above is illustrative.

In Copilot Studio, navigate to Tools, add the agent flow and provide a meaningful description so the orchestrator knows when to invoke it.

Important: Configure the tool's connection identity deliberately. An action running under a maker-provided connection may have different Dataverse permissions from the conversational user. Validate authorization within the action rather than assuming the agent automatically enforces user-level security.

Microsoft Learn

4. How to integrate a custom agent inside a D365 model-driven app

This is an important technical architect interview question.

There are multiple supported integration patterns, and the appropriate choice depends on the user experience required.

One option is a custom Power Apps Component Framework (PCF) control.

Microsoft provides a reference architecture for integrating a Copilot Studio agent with Dynamics 365 model-driven apps using PCF and Microsoft 365 Agents SDK.

Microsoft Learn

Example implementation

Requirement: Display an AI opportunity summary directly on the Opportunity form.

Dynamics 365 Opportunity Form

Opportunity ID obtained from the current record context

Custom PCF Control

TypeScript + React (optional)

Authentication and Agent Communication

Microsoft Entra ID + supported agent API/SDK

Copilot Studio Agent

Receives record context and invokes approved tools

Dataverse

Retrieves permitted opportunity information

Technical implementation steps

  1. Create and publish the Copilot Studio agent.

  2. Configure Microsoft authentication.

  3. Register the required application in Microsoft Entra ID.

  4. Configure supported delegated API permissions.

  5. Develop a PCF component using TypeScript.

  6. Obtain the current CRM record ID using the supported component context.

  7. Acquire an authentication token through the supported authentication flow.

  8. Invoke the agent using the appropriate SDK/API.

  9. Render the structured response in the PCF component.

  10. Package the component into a solution and add it to the Opportunity form.

Never hardcode client secrets in JavaScript or PCF source code.

For ordinary conversational experiences, Microsoft's reference guidance recommends using a Copilot side pane where appropriate, rather than creating a separate chat interface in every form. PCF is particularly useful for targeted experiences such as an AI-generated summary or recommendation panel.

5. MCP integration with Dynamics 365 and Copilot Studio

MCP (Model Context Protocol) is another area worth preparing for technical interviews.

It provides a standardized mechanism through which an agent can discover and invoke tools exposed by an MCP server.

For example:

User asks:

"Find opportunities that haven't had customer activity in the last 30 days."

The agent can invoke a suitable Dataverse MCP tool to retrieve the required CRM information.

MCP architecture

Copilot Studio Agent

MCP Client / Tool Invocation

Dataverse MCP Server

Dataverse Business Tables

Configuration steps

Microsoft documents a Dataverse MCP integration with Copilot Studio:

  1. Ensure the Copilot Studio MCP client is allowed in the environment.

  2. Open the agent.

  3. Navigate to Tools → Add Tool.

  4. Select Model Context Protocol.

  5. Choose Dataverse MCP Server.

  6. Configure the Dataverse connection.

  7. Add the server to the agent.

  8. Review and enable the appropriate exposed tools.

  9. Test the agent with natural-language CRM queries.

Microsoft Learn

MCP vs Power Automate

Area

Power Automate

MCP

Primary purpose

Business process execution

Standardized agent-tool integration

Integration style

Workflow-based

Tool discovery and invocation

Best suited for

Approvals, notifications, multi-step workflows

Agent-driven access to supported tools

Business logic

Flow actions and conditions

Tool implementation and backend services

Security

Connections and execution identity

Server/tool authentication and authorization

They are complementary technologies, not mutually exclusive alternatives.

6. Security architecture – Critical interview topic

An interviewer may ask:

"How do you ensure Copilot does not expose confidential CRM information?"

Explain security at multiple layers.

Layer

Implementation

Authentication

Microsoft Entra ID

Authorization

Dataverse security roles

Record-level security

Business units, ownership, sharing and teams

Column security

Dataverse column-level security

Integration security

OAuth and managed identities where supported

Data governance

Power Platform DLP policies

Audit

Dataverse auditing and agent activity monitoring

AI safety

Tool restrictions, validation and confirmation

Example scenario

A Sales Executive should only access opportunities permitted by their assigned security role.

The Copilot solution must not return other salespeople's restricted opportunity data.

Key technical consideration: Authentication to the agent, authentication to a knowledge source and the identity used by an action are separate concerns.

For custom tools, explicitly validate the calling identity and authorization. Do not rely on prompt instructions to enforce access restrictions.

7. ALM and deployment process

Explain the complete Dev → Test → UAT → Production deployment process.

DEV

SIT

UAT

PROD

Deployment components

  • Copilot Studio agent

  • Agent flows and custom connectors

  • Dataverse customizations

  • Environment variables

  • Connection references

  • PCF components, if applicable

Recommended implementation

  1. Develop the agent inside an unmanaged solution in DEV.

  2. Store solution source in Azure DevOps Git.

  3. Use Power Platform Pipelines or Azure DevOps pipelines.

  4. Export and deploy managed solutions downstream.

  5. Configure environment-specific connections and variables.

  6. Validate authentication and external dependencies.

  7. Publish the agent in the target environment.

  8. Execute regression and security tests.

  9. Monitor production behavior.

Microsoft recommends using Power Platform ALM practices for Copilot Studio agents, including separate development and testing environments.

Microsoft Learn

Remember that deploying a solution and publishing an agent are separate activities. A published agent must also be correctly configured for its intended channel.

Microsoft Learn

8. Testing and troubleshooting

Interviewers expect more than functional testing.

Test category

Example validation

Functional

Can Copilot retrieve the correct opportunity?

Security

Can an unauthorized user access restricted records?

Integration

Does Power Automate return the correct response?

Negative

What happens when an opportunity ID is invalid?

AI quality

Does the agent invent missing CRM information?

Performance

How long does an agent action take?

Regression

Does an updated agent affect existing topics?

ALM

Do connection references work after deployment?

Monitoring strategy

Use the appropriate monitoring tool for each layer.

  • Copilot Studio analytics for conversation and agent performance.

  • Power Automate run history for workflow failures.

  • Dataverse auditing for supported data-change tracking.

  • Azure Application Insights for custom Azure Functions and APIs.

  • Correlation IDs to trace requests across custom integration components.

For enterprise implementations, define measurable success criteria such as response accuracy, task completion rate, action failure rate, latency and cost per interaction.

9. Top 15 Copilot technical interview questions

These are particularly relevant for a Dynamics 365 CE Solution Architect or Senior Technical Developer interview.

Questions and model answers

Expand all
1. What is the difference between Dynamics 365 Copilot and Copilot Studio?
Dynamics 365 Copilot provides built-in application-specific AI capabilities. Copilot Studio allows us to build and extend agents with custom knowledge, instructions and actions.

2. How does Copilot access CRM data?
Through supported Dataverse knowledge integration, connectors, APIs or tools. The exact retrieval path depends on the agent architecture.

3. What is generative orchestration?
It enables the agent to select appropriate knowledge sources and tools dynamically based on the user's intent and available capabilities.

4. How do you execute a CRM action from Copilot?
Expose an approved tool, such as an agent flow, validates its input and authorization, execute the Dataverse operation and return the structure results

5. What is grounding?
Providing relevant source information to the model so it can generate responses based on enterprise data rather than unsupported assumptions.

6. What is RAG?
Retrieval-Augmented Generation retrieves relevant information and supplies it as context to the language model when generating an answer.

7. How do you secure Copilot?
Use Entra authentication, Dataverse permissions, controlled tool identities, DLP policies and backend authorization.

8. Can Copilot update Dataverse records?
Yes, through appropriately configured tools or actions with sufficient permissions and business validation.

9. What is MCP?
Model Context Protocol is a standardized interface for connecting AI applications with external tools and contextual resources.

10. When would you use Azure OpenAI instead of Copilot Studio?
When requirements justify a custom AI application architecture, greater orchestration control or specialized integrations beyond the supported low-code capabilities.

11. How do you integrate Copilot into a model-driven app?
Choose a supported native integration where available, or implement an authenticated custom integration such as Microsoft's PCF reference architecture.

12. How do you handle Copilot hallucinations?
Use grounding, deterministic tools for precise operations, constrained instructions, structured responses and output validation.

13. How do you deploy Copilot across environments?
Use solutions and Power Platform ALM, configure target-environment dependencies, validate permissions and publish the agent.

14. How do you troubleshoot a failing Copilot action?
Inspect the agent test trace, tool selection, connection identity, flow run history, Dataverse permissions and downstream API telemetry.

15. How do you optimize Copilot performance?
Limit unnecessary tool calls, reduce payload size, improve knowledge descriptions, optimize backend queries and measure end-to-end latency.

10. Real-world scenario to explain during your interview

Consider a Dynamics 365 CE implementation where sales managers need to monitor opportunity pipelines.

The proposed solution is an AI-powered Sales Assistant integrated with the existing model-driven application.

The agent can:

  • Retrieve high-value opportunities.

  • Identify opportunities requiring follow-up.

  • Summarize customer interactions.

  • Create follow-up activities after confirmation.

  • Retrieve relevant information from an external ERP through an approved integration.

How to explain the architecture in an interview

You can use the following as a 90-second model answer.

Sample interview response

"For integrating Copilot into Dynamics 365 CE, I would first evaluate whether Microsoft's native Copilot capabilities satisfy the business requirements or whether a custom Copilot Studio agent is necessary.

For a custom implementation, I would create the agent in a Dataverse-enabled Power Platform environment, configure Microsoft Entra authentication and connect the required CRM tables as knowledge sources.

For transactional operations, such as creating tasks or updating opportunities, I would expose controlled actions through Power Automate or supported APIs.

I would then integrate the agent into the required user experience, using supported native integration options or a custom PCF component where appropriate.

Security would be enforced through Dataverse roles, appropriate execution identities, backend authorization and DLP policies.

Finally, I would package the solution using Power Platform ALM, deploy through Dev, SIT, UAT and Production, and establish monitoring for conversation quality, workflow failures and custom API performance."


11. Microsoft documentation for interview preparation

These are useful technical references to study:

  1. Custom Copilot Agent Integration with Dynamics 365 – Reference Architecture

  2. Integrating Dataverse as a Copilot Knowledge Source

  3. Dataverse MCP Server Integration

  4. Extending Agents with Custom Tools

  5. Microsoft Copilot Studio Technical Documentation

Final preparation recommendation

For a senior-level interview, prioritize these five topics: Copilot Studio architecture, Dataverse security, agent actions, MCP integration and enterprise ALM.

Don't restrict your preparation to creating agents through the Copilot Studio interface. Interviewers assessing an architect-level candidate will want to understand why you selected a particular integration pattern, how identity and data access work, and how you would operate the solution reliably in production.

Monday, August 11, 2025

Security in Power Platform

 

1️⃣ Security in Power Platform — Hierarchical View

Think of security in the Power Platform as layered from broad tenant-wide controls at the top down to record-level access at the bottom.


Level 1 – Tenant-Wide Security

  • Scope: Entire Microsoft 365 tenant (all environments & users)

  • Controlled by: Microsoft 365 Admin / Power Platform Admin

  • Key Aspects:

    • Azure AD Authentication (SSO, MFA, Conditional Access)

    • Licensing & Entitlements (e.g., which users can even access Power Apps/Automate)

    • Tenant-level DLP Policies (block high-risk connectors across all environments)

    • Tenant Isolation Settings (limit data movement between tenants)

  • Real-World Use:
    Block Twitter connector globally to ensure no data leaves the tenant.


Level 2 – Environment Security

  • Scope: One specific Power Platform environment

  • Controlled by: Power Platform Environment Admin

  • Key Aspects:

    • Environment Roles:

      • Environment Admin – full control over apps, flows, settings

      • Environment Maker – can create resources but not manage security

    • Environment DLP Policies – can override global policies for specific needs

    • Security Groups for environment access control

  • Real-World Use:
    Only HR staff have access to HR App Environment; marketing cannot even see it in their app list.


Level 3 – Dataverse Security Roles

  • Scope: Dataverse database within an environment

  • Controlled by: Dataverse System Administrator

  • Key Aspects:

    • Security Roles – define CRUD permissions for tables, forms, dashboards

    • Access Levels:

      • Global (Organization)

      • Business Unit

      • Child Business Unit

      • User-Level

      • None

    • Team Access – security roles can be assigned to teams for group-based permissions

  • Real-World Use:
    Sales reps can only view their own opportunities; sales managers can view team opportunities.


Level 4 – Business Unit Hierarchy

  • Scope: Structural division of data ownership in Dataverse

  • Controlled by: Dataverse Admin

  • Key Aspects:

    • Parent-Child structure

    • Security roles assigned at business unit level cascade down

  • Real-World Use:
    APAC sales team is a child business unit under Global Sales; their data is visible to global managers but not to EMEA sales reps.


Level 5 – Record-Level Security

  • Scope: Single record in a Dataverse table

  • Controlled by: Sharing & Access Teams

  • Key Aspects:

    • Record Sharing – user-to-user or user-to-team

    • Access Teams – ad-hoc access without changing security roles

  • Real-World Use:
    Share a sensitive contract record with the legal team only.


Level 6 – Field-Level Security

  • Scope: Individual fields (columns) in a table

  • Controlled by: Field Security Profiles

  • Key Aspects:

    • Can Read/Update/Create at field level

    • Sensitive fields (e.g., salary, personal ID) are masked unless explicitly allowed

  • Real-World Use:
    HR can see salary field; hiring managers can’t.


2️⃣ Data Loss Prevention (DLP) — Hierarchical Enforcement

LevelPolicy ScopeDescriptionExample
Tenant-level DLPAll environmentsPrevents specific connector combinations globallyBlock Twitter & Dropbox in all environments
Environment-level DLPOne environmentOverrides or refines tenant policy for local needsAllow Salesforce in Sales environment only
Per-app DLPIndividual app/flowControlled indirectly via connector rulesA specific flow can only use internal connectors

3️⃣ How They Work Together

  • Tenant Admin sets broadest rules → applies everywhere.

  • Environment Admin narrows rules for local needs.

  • Dataverse Security Roles → define what users can do in a database.

  • Business Units & Teams → structure who sees what.

  • Record & Field Security → most granular control.


4️⃣ Best Practices

  • Least privilege → give only what’s needed.

  • Separate environments for Dev / Test / Prod.

  • Use security groups for environment access.

  • Audit & monitor via Power Platform Admin Center & Audit Logs.

  • Review DLP regularly when new connectors are added.

Friday, June 20, 2025

Power Plartform Coding Standards and Best Practices.

Power Apps guidance documentation provides best practice information from the team that works with our enterprise customers. We'll regularly add and update the guidance content.

Please follow the link to get more details.



Tuesday, May 20, 2025

Components & Their Usages in Dynamics 365 CRM

 

✅ Key Components & Their Usages in Dynamics 365 CRM

ComponentUsage / Purpose
Entities / TablesCore data structure (e.g., Account, Contact, Lead, Opportunity); stores business data.
FormsUI for users to interact with data; customizable per role and device.
ViewsDefine how lists of records are displayed; used in grids, lookups, dashboards.
DashboardsVisual insights using charts, KPIs, and data views; used for user-specific reporting.
Business Process FlowsGuide users through standardized business stages (e.g., sales or case resolution).
Business RulesNo-code logic to show/hide fields, set default values, enforce validation.
Workflows (Classic)Legacy process automation for background tasks like email notifications.
Power Automate (Flows)Modern, cloud-based automation for tasks, approvals, and integrations.
PluginsCustom server-side logic triggered by platform events (e.g., create/update/delete).
Custom Workflow ActivitiesCustom C# logic used in classic workflows for reusable business operations.
JavaScript (Client Scripts)Runs on forms for real-time validation or dynamic field control.
Security RolesControl user access at entity, field, and record levels.
Teams / Business UnitsUsed for structuring user access and data ownership.
SolutionsPackage and deploy customizations across environments (managed/unmanaged).
Power PagesExternal-facing portals for customers or partners to interact with CRM data.
DataverseThe underlying data platform used to store, secure, and manage data.
Model-driven AppsCustomized UI apps built using Dataverse tables and views for specific roles.
Web ResourcesStore HTML, JS, CSS, images used in forms and custom interfaces.
Audit HistoryTracks changes at field level for compliance and traceability.
Field-Level SecurityRestricts visibility of sensitive data to specific users/roles.
AI Features / CopilotOffers recommendations, automation, and insights based on business data.
Power BI IntegrationAdvanced reporting and dashboarding with CRM data via live or scheduled refresh.
Mobile App SupportAccess CRM data and functionality via official Dynamics 365 mobile apps.

Saturday, May 28, 2022

The Cynefin Framework

 With problem-solving and decision making there are different approaches depending on the situation. An approach that works well in one situation can prove ineffective or even counterproductive in another. A framework that can help you think about this is the Cynefin Framework developed by Kurtz and Snowden.

This sensemaking framework provides you a context to think through the details of a situation, classify it, and understand the appropriate response to make the most of the situation.




As per the diagram above the Cynefin Framework outlines five domains:

Obvious or Simple (the known) — We’ve seen this a million times and as such can categorize and respond according to established best practices. The relationship between cause and effect is well known.

Complicated (the knowable) — Although we don’t immediately know what is happening, we can analyze the situation and come to a conclusion of what must be done. We can enlist experts to analyze, set up constraints and a process addressing resolution.

Complex (the unknowable) — We’re not able to determine what will cause a particular result. The best course of action is to conduct experiments and check if any or all take us in the correct direction. A lot of time when human opinion and decision is involved we could be working in this area; simply because humans are complex beings.

Chaotic (the incoherent) — The situation is very unstable. We don’t have time to experiment or probe since the situation is dire and we need to act. An IT issue that must be taken care of immediately with no delay may be categorized as such. If we have no time to figure out a system deadlock issue, we may opt to get ourselves out of this chaotic state by rebooting the server.

Disorder (not determined) — Anything whose domain has not been determined falls into this domain.


An interesting point to make about the placement of the “Simple” and “Chaotic” domains next to each other is to make the point that poorly managed simple systems can quickly become chaotic, requiring rapid triage to bring them back under control. 


Of particular interest to me is the un-ordered “Complex” domain which Snowden describes in some detail in an excellent HBR article as having the following characteristics:

It involves large numbers of interacting elements.

The interactions are nonlinear, and minor changes can produce disproportionately major consequences.

The system is dynamic, the whole is greater than the sum of its parts, and solutions can’t be imposed; rather, they arise from the circumstances. This is frequently referred to as emergence

The system has a history, and the past is integrated with the present; the elements evolve with one another and with the environment; and evolution is irreversible.

Though a complex system may, in retrospect, appear to be ordered and predictable, hindsight does not lead to foresight because the external conditions and systems constantly change.

Unlike in ordered systems (where the system constrains the agents), or chaotic systems (where there are no constraints), in a complex system the agents and the system constrain one another, especially over time. This means that we cannot forecast or predict what will happen.

Leaders who don’t recognise that a complex domain requires a more experimental mode of management may become impatient when they don’t seem to be achieving the results they were aiming for. They may also find it difficult to tolerate failure, which is an essential aspect of experimental understanding. If they try to overcontrol the organization, they will preempt the opportunity for informative patterns to emerge. Leaders who try to impose order in a complex context will fail, but those who set the stage, step back a bit, allow patterns to emerge, and determine which ones are desirable will succeed.

 

- Many thanks to the original owners of these contents 🙏