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Dt Methods

MicrosoftOfficialPublished by Microsoft

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  • Business and productivity
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From the author

Design Thinking method coaching knowledge across all nine methods including per-method techniques, deep expertise, and industry context (energy, financial services, healthcare, manufacturing, nonprofit and social impact, pharmaceuticals and life sciences, professional services, public sector, retail and CPG)
— the description by Microsoft

AutoGineer summary

Written by AutoGineer from the skill’s own files, not by the author

The dt-methods skill provides a structured reference system for AI agents to coach teams through the Design Thinking process. It organizes guidance into three layers: core method references for day-to-day activities, deep references for advanced facilitation and recovery, and industry-specific context to tailor vocabulary and constraints. The skill covers nine major industries, including energy, healthcare, and financial services, ensuring that coaching is grounded in the specific operational realities and regulatory environments of the user's sector.

What it does

  • Provides step-by-step guidance for nine core Design Thinking methods.
  • Offers advanced facilitation techniques and recovery strategies for complex scenarios.
  • Maps Design Thinking concepts to industry-specific terminology and constraints.
  • Integrates telemetry expectations for session artifacts to ensure observable outcomes.
  • Supplies industry-specific empathy tools and stakeholder considerations.
  • Supports tailoring of coaching based on the active method and identified industry context.

When to use it

  • When facilitating a Design Thinking session and requiring method-specific guidance.
  • When a team needs advanced troubleshooting or recovery techniques during a workshop.
  • When applying Design Thinking within a specific industry to ensure relevant vocabulary and constraints are respected.
  • When defining telemetry or audit trails for Design Thinking session artifacts.

Advantages

  • Ensures consistent coaching across the entire Design Thinking lifecycle.
  • Reduces friction by using industry-appropriate language and concepts.
  • Provides a clear path for scaling from basic methods to advanced facilitation.
  • Integrates operational and regulatory awareness into the design process.

Usage examples

“How should I facilitate a brainstorming session for a team in the energy sector?”
The agent will load the brainstorming method reference and the energy industry context, providing guidance that uses energy-specific terms like 'reliability concern' and 'forced outage rate' while emphasizing safety and regulatory constraints.
“We are stuck during the user research phase; what advanced techniques can we use?”
The agent will access the deep reference for the Design Research method to provide advanced facilitation strategies and recovery techniques to help the team overcome their current roadblock.

Install

  1. Download the skill as a ZIP:

    https://autogineer.com/agent-skills/microsoft/dt-methods/download
  2. Unzip it into the cross-client skills folder of your project:

    mkdir -p .agents/skills && unzip dt-methods.zip -d .agents/skills

Documentation by Microsoft

Design Thinking Methods Skill

Entrypoint for Design Thinking method coaching knowledge. The dt-coach agent loads the method reference matching the active method in coaching state, the matching deep reference when advanced technique is needed, and the industry reference when an industry context applies.

How to use this skill

  • Read the method reference for the method currently active in coaching state to ground day-to-day coaching.

  • Read the matching deep reference when the conversation needs advanced facilitation, recovery techniques, or expert frameworks beyond the core method guidance.

  • Read the industry reference when the team has identified one of the nine covered industries as their context, and weave its vocabulary, constraints, and empathy tools into method-specific guidance.

  • Read dt-coach-telemetry.md when DT session artifacts need observable telemetry expectations grounded in telemetry-foundations.

Method references

Industry context references

Load the matching reference when the team identifies its industry context.

ReferenceWhen to load
industry-energy.mdEnergy-sector vocabulary, constraints, empathy tools, and reference scenario.
industry-financial-services.mdFinancial services vocabulary, constraints, empathy tools, and reference scenario.
industry-healthcare.mdHealthcare vocabulary, constraints, empathy tools, and reference scenario.
industry-manufacturing.mdManufacturing vocabulary, constraints, empathy tools, and reference scenario.
industry-nonprofit-social-impact.mdNonprofit and social impact vocabulary, constraints, empathy tools, and reference scenario.
industry-pharmaceuticals-life-sciences.mdPharmaceuticals and life sciences vocabulary, constraints, empathy tools, and reference scenario.
industry-professional-services.mdProfessional services vocabulary, constraints, empathy tools, and reference scenario.
industry-public-sector.mdPublic sector and government vocabulary, constraints, empathy tools, and reference scenario.
industry-retail-cpg.mdRetail and consumer goods vocabulary, constraints, empathy tools, and reference scenario.

Skill layout

.
├── SKILL.md
└── references/
    ├── method-01-scope.md
    ├── method-01-deep.md
    ├── method-02-research.md
    ├── method-02-deep.md
    ├── method-03-synthesis.md
    ├── method-03-deep.md
    ├── method-04-brainstorming.md
    ├── method-04-deep.md
    ├── method-05-concepts.md
    ├── method-05-deep.md
    ├── method-06-lofi-prototypes.md
    ├── method-06-deep.md
    ├── method-07-hifi-prototypes.md
    ├── method-07-deep.md
    ├── method-08-testing.md
    ├── method-08-deep.md
    ├── method-09-iteration.md
    ├── method-09-deep.md
    ├── industry-energy.md
    ├── industry-financial-services.md
    ├── industry-healthcare.md
    ├── industry-manufacturing.md
    ├── industry-nonprofit-social-impact.md
    ├── industry-pharmaceuticals-life-sciences.md
    ├── industry-professional-services.md
    ├── industry-public-sector.md
    ├── industry-retail-cpg.md
    └── dt-coach-telemetry.md

Files

references/method-09-deep.md


title: 'DT Method 09 Deep: Advanced Iteration at Scale Techniques' description: Deep-dive companion for DT Method 09 covering advanced iteration at scale techniques.

On-demand deep reference for Method 9. The coach loads this file when encountering complex organizational change management, advanced scaling challenges, adoption measurement systems, or manufacturing-specific deployment patterns that exceed the method-tier guidance.

Advanced Coaching Hats

The method-tier file provides Iteration Strategist and Deployment Planner coaching hats. This deep-tier reference extends those with three specialized coaching hats for complex scaling scenarios.

Change Strategist

Organizational change management, stakeholder alignment, and resistance mitigation for solution scaling initiatives.

Activation triggers:

  • User encounters organizational resistance to solution deployment.

  • User needs stakeholder alignment across multiple departments or business units.

  • User faces change management challenges beyond technical rollout.

  • User discusses union environments, regulatory compliance, or safety-critical change management.

  • Conversation shifts from "how do we build it?" to "how do we get people to adopt it?"

Coaching focus:

  • ADKAR framework application: guide users through Awareness, Desire, Knowledge, Ability, and Reinforcement phases for solution adoption.

  • Political navigation: identify power dynamics, informal influence networks, and alliance-building opportunities.

  • Resistance pattern recognition: anticipate and address common resistance sources including resource competition, skill gaps, and change fatigue.

  • Champion identification and development: locate and empower internal advocates across organizational levels.

  • Communication strategy: craft targeted messaging for different stakeholder audiences with appropriate urgency and value framing.

Scaling Architect

Advanced scaling patterns, risk mitigation, and technical-organizational integration for solution expansion.

Activation triggers:

  • User planning scaling beyond pilot phase to production deployment.

  • User discusses geographic expansion, multi-site rollout, or cross-organizational challenges.

  • User encounters technical scaling constraints intersecting with organizational boundaries.

  • User needs guidance on phased rollout strategies with rollback capabilities.

  • Conversation involves supply chain integration, vendor coordination, or external partner alignment.

Coaching focus:

  • Scaling pattern selection: guide users through pilot-to-production, geographic expansion, network effect, platform-based, and supply chain scaling approaches.

  • Risk assessment and mitigation: identify scaling failure modes and develop contingency plans for each scaling phase.

  • Infrastructure alignment: ensure technical architecture supports organizational scaling requirements.

  • Integration complexity management: address data flow, process boundary, and governance challenges at scale.

  • Graceful degradation planning: design systems that maintain core value when scaling challenges emerge.

Adoption Analyst

Measurement systems, behavioral change tracking, and value realization assessment for sustained solution adoption.

Activation triggers:

  • User needs to define adoption success metrics beyond simple usage statistics.

  • User encounters challenges distinguishing genuine adoption from surface compliance.

  • User discusses value realization tracking or ROI measurement for scaled solutions.

  • User faces behavioral change measurement challenges or adoption velocity concerns.

  • Conversation involves long-term sustainability measurement or resistance detection systems.

Coaching focus:

  • Leading vs lagging indicator framework: distinguish predictive adoption signals from outcome measurements.

  • Behavioral change assessment: track user adaptation patterns, workaround development, and voluntary usage growth.

  • Value realization measurement: connect solution usage to measurable business outcomes and organizational goals.

  • Resistance detection systems: identify early warning signals of adoption failure or user circumvention.

  • Sustainability metrics: measure organizational capability to maintain and evolve solutions over time without coaching intervention.

Organizational Change Management Deep Dive

ADKAR Framework Application

The ADKAR (Awareness, Desire, Knowledge, Ability, Reinforcement) framework provides systematic change management structure for solution scaling.

Awareness Creation
  • Stakeholder mapping: identify who needs to know what about the solution and when they need to know it.

  • Context setting: frame the solution within existing organizational priorities and pain points.

  • Urgency development: articulate the cost of delay and competitive implications of non-adoption.

  • Multi-channel communication: use formal communications, informal networks, and peer influence to build awareness.

Coaching prompt: "Who in your organization doesn't yet understand why this solution matters to them specifically?"

Desire Cultivation
  • Personal benefit articulation: help individuals understand how the solution improves their daily work.

  • Organizational benefit connection: link individual benefits to team and company success metrics.

  • Resistance source identification: surface and address concerns about workload increase, skill requirements, or job security.

  • Early win highlighting: showcase initial success stories and peer testimonials.

Coaching prompt: "What would make each stakeholder group actively want to use this solution rather than just comply?"

Knowledge Transfer
  • Competency mapping: identify specific skills each user group needs to succeed with the solution.

  • Learning path development: create role-specific training that fits within operational constraints.

  • Just-in-time learning: provide support at the moment of need rather than comprehensive upfront training.

  • Peer learning networks: establish mentorship and knowledge sharing between early adopters and newcomers.

Coaching prompt: "What does each user group specifically need to learn, and how does it fit within their current work rhythm?"

Ability Development
  • Resource allocation: ensure users have time, tools, and support needed for successful adoption.

  • Skill development: provide practice opportunities in low-stakes environments before production use.

  • Environmental preparation: modify workspaces, processes, and systems to support solution usage.

  • Performance support: create job aids, quick references, and in-context help systems.

Coaching prompt: "What barriers prevent users from applying what they've learned in their daily work?"

Reinforcement Establishment
  • Incentive alignment: ensure performance metrics and reward systems support solution adoption.

  • Feedback loop creation: establish mechanisms for users to report challenges and request improvements.

  • Success celebration: recognize and publicize adoption milestones and user achievements.

  • Continuous improvement integration: make solution evolution a standard part of operational cadence.

Coaching prompt: "What systems are in place to sustain adoption after the initial rollout excitement fades?"

Manufacturing Change Management Specifics

Manufacturing environments present unique change management challenges requiring specialized approaches:

Shift-based Communication
  • Multi-shift messaging: ensure consistent communication across all operational shifts including weekends and holidays.

  • Handoff protocol integration: embed solution changes into existing shift handoff procedures.

  • Language and literacy considerations: provide visual, audio, and multilingual support where appropriate.

  • Union coordination: align change management with collective bargaining agreements and union representative communication.

Safety-First Change Approach
  • Risk assessment integration: evaluate solution changes through existing safety review processes.

  • Emergency protocol preservation: ensure solution changes don't compromise existing safety procedures.

  • Gradual rollout with safety monitoring: implement changes incrementally with enhanced safety observation.

  • Regulatory compliance validation: confirm solution changes meet industry-specific regulatory requirements.

Advanced Scaling Patterns

Five Scaling Pattern Types
Pilot-to-Production Scaling
  • Systematic expansion from controlled pilot environment to full production deployment.

  • Maintain pilot environment for comparison, implement rollback capabilities, establish success criteria before expansion.

  • Test on single production line before plant-wide deployment, maintain original process as fallback.

Geographic Expansion Scaling
  • Location-by-location rollout across multiple sites or regions.

  • Account for local regulatory differences, cultural variations, and infrastructure constraints.

  • Site-by-site deployment with local champion development and region-specific customization.

Network Effect Scaling
  • Value increases as more users adopt the solution, creating self-reinforcing adoption momentum.

  • Ensure minimum viable network size for value creation, prevent early adoption decline.

  • Supply chain integration where vendor participation increases value for all participants.

Platform-Based Scaling
  • Core solution enables multiple use cases or serves as foundation for additional capabilities.

  • Maintain platform stability while enabling innovation, establish development governance.

  • Equipment monitoring platform that supports maintenance, quality, and safety applications.

Supply Chain Integration Scaling
  • Solution adoption spans organizational boundaries to include vendors, customers, and partners.

  • Address data sharing concerns, establish integration standards, manage multi-organizational change.

  • End-to-end traceability systems connecting suppliers, manufacturing, and customer delivery.

Manufacturing Deployment Patterns
Shift-by-Shift Rollout

Deploy solution to one shift, validate effectiveness, then expand to additional shifts. Maintains production continuity while enabling iterative improvement.

  • Shift comparison analysis, cross-shift knowledge transfer, 24/7 support during transition.

  • Week 1 single shift, Week 2 second shift with first shift mentoring, Week 3 all shifts operational.

Equipment Integration Phasing

Integrate solution with critical equipment during planned maintenance windows to minimize downtime.

  • Maintenance window planning, equipment vendor coordination, rollback procedures for production recovery.

  • No unplanned downtime, maintained production targets, operator confidence.

Safety-Critical System Deployment

Parallel operation with existing safety systems until new solution proves reliable in production environment.

  • Dual system operation, safety system integration testing, regulatory approval validation.

  • New safety monitoring system operates alongside existing safety protocols until proven effective.

Union Environment Coordination

Collaborate with union representatives throughout deployment to address worker concerns and ensure collective bargaining compliance.

  • Union leadership engagement, worker feedback integration, retraining program development.

  • Joint management-union communication, worker concern response system, celebration of worker contributions.

Supply Chain Vendor Alignment

Coordinate solution deployment across multiple vendors and partners in manufacturing supply chain.

  • Vendor capability assessment, integration standard development, phased vendor onboarding.

  • End-to-end process improvement, reduced vendor coordination overhead, improved quality metrics.

Adoption Measurement Systems

Leading vs Lagging Indicator Framework
Leading Indicators (Predictive)
  • User engagement depth: Time spent learning solution features beyond minimum requirements.

  • Voluntary usage growth: Adoption in optional scenarios or non-mandated use cases.

  • User-generated improvement suggestions: Proactive feedback and enhancement requests from users.

  • Peer referral activity: Users recommending solution to colleagues or other departments.

  • Training completion with retention: Not just training attendance, but demonstrated skill retention over time.

Lagging Indicators (Outcome)
  • Business metrics improvement: Measurable impact on productivity, quality, cost, or safety metrics.

  • Process optimization: Documented improvements to existing workflows enabled by solution adoption.

  • Organizational capability enhancement: New organizational capabilities that emerge from solution usage.

  • Competitive advantage realization: Market position improvements attributable to solution deployment.

  • User satisfaction sustainability: Maintained or improved satisfaction scores over extended time periods.

Behavioral Change Measurement
Adaptation Pattern Tracking

Monitor how users modify their workflows to incorporate the solution. Positive adaptation indicates genuine adoption.

  • Workflow observation, user interview analysis, process improvement documentation.

  • Workers developing custom solution usage patterns that improve efficiency beyond standard procedures.

Workaround Detection

Identify when users circumvent the solution to accomplish their goals. Workarounds indicate adoption barriers.

  • Process variance analysis, shadow workflow identification, user confession safe spaces.

  • Address workaround root causes rather than enforcing compliance.

Knowledge Transfer Behavior

Track how users share solution knowledge with peers. Active teaching indicates deep adoption.

  • Peer mentoring observation, knowledge sharing frequency, training participation.

  • Experienced operators spontaneously training new workers on solution usage during regular work activities.

Scaling Anti-Patterns
Five Scaling Anti-Pattern Recognition
Premature Scaling
  • Pressure to expand before pilot validation is complete.

  • Success metrics undefined, user feedback incomplete, technical stability unproven.

  • Establish clear scaling gates, resist timeline pressure, validate assumptions before expansion.

Feature Creep During Scaling
  • Adding capabilities during rollout phases.

  • Scope expansion requests, "while we're at it" modifications, feature requests from new user groups.

  • Freeze feature development during scaling phases, establish change control process.

Organizational Readiness Assumption
  • Technical readiness assumed to equal organizational readiness.

  • Training underestimated, change management skipped, stakeholder resistance unexpected.

  • Parallel technical and organizational readiness assessment, change management resource allocation.

Success Metric Gaming
  • Optimizing for measurement rather than genuine adoption.

  • Metric improvement without user value, compliance without engagement, surface adoption without behavior change.

  • Multiple measurement dimensions, qualitative validation of quantitative metrics, user value validation.

Scaling Without Learning
  • Identical deployment repeated across contexts without customization.

  • Local adaptation ignored, context differences dismissed, one-size-fits-all approach.

  • Context assessment for each scaling phase, local customization planning, learning integration between scaling phases.

Manufacturing Deployment Excellence

Regulatory Compliance Integration

Manufacturing solution deployment must integrate with existing regulatory frameworks and compliance requirements.

Regulatory Review Integration

Incorporate solution changes into standard regulatory review processes. Avoid parallel review tracks that create delays.

  • Ensure solution documentation meets existing regulatory documentation standards.

  • Maintain deployment records that support regulatory audit requirements.

Quality System Integration

Align solution deployment with ISO, FDA, or industry-specific quality management systems.

  • Create validation procedures that demonstrate solution effectiveness within quality framework.

  • Follow existing change control procedures for solution modifications.

Production Integration Success Patterns
Minimal Disruption Deployment

Implement solutions during planned maintenance windows, shift changes, or other natural production breaks.

  • Coordinate deployment with production calendar to minimize operational impact.

  • Maintain ability to restore previous operational state within single shift period.

Cross-Functional Team Integration

Include production, maintenance, quality, safety, and operations teams in deployment planning.

  • Establish clear communication channels between all affected departments.

  • Ensure all departments agree on deployment success measures and acceptance criteria.

Validation Guidance

  • This deep-tier reference supplements the method-tier file and activates only when coaching scenarios exceed standard guidance.

  • Coaching hats, scaling patterns, and anti-patterns apply within the Design Thinking Method 9 context and assume prior method completion.

  • Verify that ADKAR phases are addressed sequentially; skipping phases undermines adoption sustainability.

  • Cross-reference adoption metrics with the method-tier leading/lagging indicator framework to maintain measurement consistency.

  • All DT coaching artifacts are scoped to .copilot-tracking/dt/{project-slug}/. Never write DT artifacts directly under .copilot-tracking/dt/ without a project-slug directory.

Requirements and compatibility

Written for: GitHub Copilot, Claude Code

Works with: Claude Code, Claude apps, OpenAI Codex, GitHub Copilot, Cursor, Gemini CLI, Kiro, OpenCode, Goose, Amp, Roo Code, JetBrains Junie, Factory Droid, Devin (ex-Windsurf), Mistral Vibe, OpenHands, Letta

“Works with” means the tool reads the open Agent Skills format; a skill written for one tool may use features others lack.

Needs: Claude Code frontmatter

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Attribution and licence

Published by
Microsoft
Publisher
Microsoft (Official)
Source
microsoft/hve-core · .github/skills/design-thinking/dt-methods · commit f425e94
Licence
MIT License (redistribution allowed)
  • LICENSE (added by AutoGineer from LICENSE)
  • ATTRIBUTION.md (written by AutoGineer)
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