Dt Methods
MicrosoftOfficialPublished by Microsoft
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- Business and productivity
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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
Download the skill as a ZIP:
https://autogineer.com/agent-skills/microsoft/dt-methods/downloadUnzip 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
| Method | Name | Core reference | Deep reference |
|---|---|---|---|
| 1 | Scope Conversations | method-01-scope.md | method-01-deep.md |
| 2 | Design Research | method-02-research.md | method-02-deep.md |
| 3 | Input Synthesis | method-03-synthesis.md | method-03-deep.md |
| 4 | Brainstorming | method-04-brainstorming.md | method-04-deep.md |
| 5 | User Concepts | method-05-concepts.md | method-05-deep.md |
| 6 | Low-Fidelity Prototypes | method-06-lofi-prototypes.md | method-06-deep.md |
| 7 | High-Fidelity Prototypes | method-07-hifi-prototypes.md | method-07-deep.md |
| 8 | User Testing | method-08-testing.md | method-08-deep.md |
| 9 | Iteration at Scale | method-09-iteration.md | method-09-deep.md |
Industry context references
Load the matching reference when the team identifies its industry context.
| Reference | When to load |
|---|---|
| industry-energy.md | Energy-sector vocabulary, constraints, empathy tools, and reference scenario. |
| industry-financial-services.md | Financial services vocabulary, constraints, empathy tools, and reference scenario. |
| industry-healthcare.md | Healthcare vocabulary, constraints, empathy tools, and reference scenario. |
| industry-manufacturing.md | Manufacturing vocabulary, constraints, empathy tools, and reference scenario. |
| industry-nonprofit-social-impact.md | Nonprofit and social impact vocabulary, constraints, empathy tools, and reference scenario. |
| industry-pharmaceuticals-life-sciences.md | Pharmaceuticals and life sciences vocabulary, constraints, empathy tools, and reference scenario. |
| industry-professional-services.md | Professional services vocabulary, constraints, empathy tools, and reference scenario. |
| industry-public-sector.md | Public sector and government vocabulary, constraints, empathy tools, and reference scenario. |
| industry-retail-cpg.md | Retail 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.mdFiles
- ATTRIBUTION.mdAdded by AutoGineer871 B
- LICENSELicence file added by AutoGineer1.1 KiB
- SKILL.md6.5 KiB
- references/dt-coach-telemetry.md1.5 KiB
- references/industry-energy.md9.1 KiB
- references/industry-financial-services.md10.7 KiB
- references/industry-healthcare.md7.7 KiB
- references/industry-manufacturing.md6.7 KiB
- references/industry-nonprofit-social-impact.md15.6 KiB
- references/industry-pharmaceuticals-life-sciences.md20.1 KiB
- references/industry-professional-services.md14.0 KiB
- references/industry-public-sector.md12.1 KiB
- references/industry-retail-cpg.md16.5 KiB
- references/method-01-deep.md10.4 KiB
- references/method-01-scope.md10.2 KiB
- references/method-02-deep.md15.6 KiB
- references/method-02-research.md7.0 KiB
- references/method-03-deep.md13.9 KiB
- references/method-03-synthesis.md8.9 KiB
- references/method-04-brainstorming.md13.6 KiB
- references/method-04-deep.md16.5 KiB
- references/method-05-concepts.md17.1 KiB
- references/method-05-deep.md17.7 KiB
- references/method-06-deep.md16.3 KiB
- references/method-06-lofi-prototypes.md17.2 KiB
- references/method-07-deep.md10.9 KiB
- references/method-07-hifi-prototypes.md9.8 KiB
- references/method-08-deep.md15.0 KiB
- references/method-08-testing.md11.5 KiB
- references/method-09-deep.md17.2 KiB
- references/method-09-iteration.md11.9 KiB
references/industry-pharmaceuticals-life-sciences.md
title: Pharmaceuticals & Life Sciences Industry Context description: Pharmaceuticals and life sciences industry context, vocabulary, and constraints for tailoring Design Thinking methods to this sector.
Load this file when the team identifies Pharmaceuticals & Life Sciences as their industry context and you are providing Design Thinking coaching.
Industry Profile
Sector: Discovery, development, manufacturing, and commercialization of therapeutic compounds (small-molecule drugs, biologics, vaccines, gene therapies, diagnostics) intended to treat, prevent, or monitor human disease.
Key stakeholders: Pharmaceutical scientists (discovery, preclinical), clinical researchers, regulatory affairs specialists, physicians & patient populations, pharmacy benefit managers (PBMs), health economists, patient advocacy groups, contract research organizations (CROs), manufacturing partners, FDA/EMA/regional regulators, hospital systems, payers (insurance, government).
Decision cadence: Long (5-15 years pre-approval development); front-loaded regulatory gates (Pre-IND, End-of-Phase II, Pre-NDA meetings); post-approval iterations tied to Phase IV commitments and label expansions; reimbursement decisions (12-18 months post-approval).
Regulatory environment: Highly prescriptive (FDA 21 CFR Part 312, ICH E6 Good Clinical Practice, ICH E9 Statistical Principles, EMA CHMP procedures); data-driven (two pivotal Phase III trials typically required); patient safety paramount (clinical holds, adverse event signals can halt development); transparency mandates (Sunshine Act, real-world evidence integration emerging).
Missing voices: Patients (especially rare disease populations with limited enrollment options), healthcare workers in resource-limited settings, health equity advocates, long-term real-world outcome reporters, manufacturing & supply chain teams (often perceived as back-office).
Vocabulary Mapping
| Pharma/Life Sciences Term | Design Thinking Equivalent / Clarification |
|---|---|
| IND (Investigational New Drug) | Regulatory permission to initiate human clinical trials; gate 1 in development |
| NDA/BLA (New Drug/Biologics License Application) | Final regulatory submission post-clinical data; gate 2 for market approval |
| Phase I, II, III, IV trials | Sequential human testing: Phase I (safety in 20-100 healthy/patients), Phase II (efficacy signal in 100-500 patients), Phase III (confirmation in 1,000-5,000 patients), Phase IV (post-approval surveillance) |
| CMC (Chemistry, Manufacturing, Controls) | Supply chain & scale-up readiness; manufacturing process validation |
| GCP (Good Clinical Practice) | Regulatory standard for ethical trial conduct, patient safety, data integrity |
| Efficacy endpoint | Measurable outcome proving the drug works (e.g., tumor shrinkage, pain reduction, biomarker change) |
| Adverse event / Safety signal | Unwanted side effect; cluster of similar events triggers investigation & potential trial halt |
| REMS (Risk Evaluation & Mitigation Strategy) | Risk management plan post-approval (e.g., restricted distribution, prescriber certification) |
| Reimbursement / Payer approval | Health insurance coverage decision; tied to cost-effectiveness (NICE ICER, HAS ASMR) |
| Patent cliff | Expiration of patent protection; generic entry expected, revenue drops sharply |
| Breakthrough Therapy / Accelerated Approval | Expedited regulatory pathways for serious conditions with unmet need |
| Real-World Evidence (RWE) | Post-approval data from electronic health records, disease registries, patient outcomes outside controlled trials |
| Rare disease / Orphan designation | Drug for <200,000 US patients or <5 in 10,000 EU patients; incentives (PRV, market exclusivity, lower evidence bar) |
Constraints and Considerations
Regulatory Non-Negotiables
Pharmaceutical development is bounded by regulatory requirements that cannot be designed away: Investigational New Drug (IND), New Drug Application (NDA), and Biologics License Application (BLA) submissions to the FDA must follow 21 CFR Part 312, 314, and international harmonized guidelines (ICH E6, E8, E9). Clinical trials require Institutional Review Board (IRB) approval, Good Clinical Practice (GCP) compliance, and data integrity protocols. Adverse event reporting is mandatory; safety signals can trigger immediate clinical holds. Patient informed consent must meet 21 CFR Part 50 standards.
DT coaching implication: Coaches must recognize that exploratory prototyping, user co-design workshops, and iterative user testing cannot replace or accelerate formal regulatory submissions. Real-world feedback loops exist but must operate parallel to—not instead of—the approval pathway.
Long Development Timelines & Patience with Ambiguity
Typical pharmaceutical development spans 10-15 years from preclinical discovery to market approval: 3-6 years preclinical, 1-2 years IND review, 2-3 years Phase I-II, 2-4 years Phase III, 1-2 years NDA/BLA review. Regulatory decision gates (Pre-IND, End-of-Phase II, Pre-NDA meetings) are spaced 2-4 years apart. Failure rates are high (~90% of compounds fail before approval). Budget commitments are enormous ($2-3B per approved drug in mature pharma companies).
DT coaching implication: Teams accustomed to monthly or quarterly product iterations may struggle with the long view. Coaches should help teams identify intermediate validation milestones within phases (e.g., Phase II interim analyses, CRO engagement model design, early health economic models) where DT methods can accelerate learning and reduce waste.
Limited Patient Population for Rare Diseases
For orphan/rare diseases, patient populations are often <1,000-5,000 globally, scattered across geographies with no centralized registry. Clinical trial recruitment becomes the bottleneck: sites compete for patients, enrollment can drag 3-5 years, dropouts are high (especially when patients gain access to compassionate use programs). Real-world data from disease registries may be incomplete or delayed.
DT coaching implication: Patient empathy work must include registry coordinators, patient advocacy organizations, and regional treatment centers as key stakeholders. Early patient engagement (via advisory groups, co-design of trial protocols) can improve recruitment and retention.
Intellectual Property & Confidentiality Walls
Pre-approval data is highly confidential: regulatory submissions, clinical trial datasets, manufacturing processes, pricing strategies. Patent prosecution timelines constrain public communication; competitors monitor filings. Cross-company collaboration requires detailed Material Transfer Agreements (MTAs) and data-sharing restrictions. Employees often work under non-disclosure agreements that limit their ability to share learnings even internally across business units.
DT coaching implication: Coaches should design empathy work and stakeholder interviews with confidentiality protocols in mind. Some teams may need to anonymize or aggregate learnings before sharing across divisions. Competitive intelligence is a legitimate business function but must be clearly distinguished from primary research.
Manufacturing Scale-Up & Supply Chain Realities
Developing a drug is not complete at approval—manufacturing must scale from lab batches (grams) to commercial production (kilograms/tons) while maintaining GMP (Good Manufacturing Practice) quality. Complex biologics (monoclonal antibodies, cell therapies) have hard supply constraints: bioreactor capacity, raw material availability, cold-chain logistics. A single manufacturing bottleneck can delay market launch or limit patient access for years. Contract Manufacturing Organizations (CMOs/CDMOs) are often geographically constrained.
DT coaching implication: Coaches should ensure supply chain, manufacturing, and quality teams are included in early problem-scoping. A brilliant treatment concept that cannot scale or cannot be manufactured at acceptable cost will fail post-approval.
Reimbursement & Pricing Pressure
In most developed markets (UK, France, Germany, Canada), government health systems or payers control reimbursement through health economic evaluation: Does the drug provide value (cost per QALY, ICER) vs. existing therapies? NICE (UK) typically sets thresholds at £20,000-£30,000 per QALY; HAS (France) assigns ASMR (therapeutic value) levels driving pricing. US market is less controlled but faces increasing scrutiny (IRA price negotiation 2023+). Payers demand real-world evidence post-approval. High pricing invites political backlash, generic entry acceleration, and exclusion from formularies.
DT coaching implication: Teams should engage health economists and market access professionals early in problem definition. Patient affordability and equitable access are now part of the value proposition, not afterthoughts.
Blinded & Randomized Trial Design Constraints
Most Phase III trials use blinded, randomized designs for regulatory credibility. This means patients and trial staff don't know who receives active drug vs. placebo, and random allocation (not clinical judgment) determines treatment. This design slows real-world feedback to patients and clinicians, constrains what can be tested about user experience, and can feel ethically fraught in serious diseases where placebo is not acceptable.
DT coaching implication: Coaches should help teams understand that open-label, adaptive trial designs and real-world evidence pathways are emerging but remain exceptions. Design research (user interviews, observational studies) must happen around the blinded trial infrastructure, not within it.
Empathy Tools
Stakeholder Immersion: Clinic Observation & Patient Journey Mapping
Spend time in clinical sites, specialist practices, and patient advocacy organizations. Observe how patients navigate diagnosis, treatment decisions, trial enrollment, and ongoing care. Map the full patient journey from symptom onset through diagnosis, treatment selection, therapy administration (clinic visits, home infusions, pills), monitoring (lab work, imaging, patient-reported outcomes), and long-term follow-up. Identify switching points (where patients abandon therapy, where clinicians lose confidence) and information gaps (what do patients want to know but can't find?).
Key stakeholders to interview: patients (active therapy + treatment-naive), caregivers, primary care physicians, specialists, nurses, clinical trial coordinators, patient advocates, pharmacy staff (especially specialty pharmacies handling complex therapies).
Scientific Literature & Unmet Need Analysis
Read recent clinical trial publications in your disease area. Identify gaps: What endpoints did trials miss that patients care about? What patient populations are underrepresented in trials (women, minorities, elderly, frail)? What real-world outcomes differ from trial endpoints? Search disease registries, patient forums (e.g., PatientsLikeMe), and advocacy group surveys for common pain points: long diagnostic delays, side effect surprises, access/affordability barriers, caregiver burden.
Key sources: PubMed (clinical trials, epidemiology), FDA Advisory Committee meeting transcripts (public testimony), EMA CHMP assessment reports (clinical and regulatory reasoning), NICE appraisals (health economic & equity analysis), patient org position papers and surveys.
Multi-Stakeholder Value Workshops
Bring together physicians, patients, payers, pharmacists, and pharma teams to surface conflicting values. Physicians prioritize efficacy and safety; patients prioritize quality of life and access; payers prioritize cost-effectiveness; pharma prioritizes innovation incentives. Map the tradeoff landscape: e.g., if we lower price to improve access, can we still fund the next trial? If we expand indication to a broader population, can we maintain manufacturing quality?
Framing question: "What would a 'successful' therapy look like in 5 years for each stakeholder group?"
Regulatory & Payer Intelligence: Regulatory Pathways & Health Economic Models
Understand the regulatory pathway your product is likely to pursue (standard, accelerated approval, breakthrough therapy). Study recent FDA / EMA decisions on similar therapies: What drove approval? What were reviewer concerns? What post-approval commitments were required? For pricing, model the health economic case: Is the cost-effectiveness ratio likely to be acceptable in UK (NICE), France (HAS), US (commercial)? Will you qualify for orphan drug incentives or breakthrough designation? Where are regulatory or payer risks that could kill the program post-approval?
Key sources: FDA approval letters, EMA CHMP assessment reports, NICE technology appraisals, regulatory agency guidance documents (freely available on FDA.gov, EMA.europa.eu).
Reference Scenario
Cardio-Metabolic Disease: Heart Failure & Type 2 Diabetes Intersection
Context: Your biotech team has discovered a novel compound (BIO-217) that appears to improve both cardiac function and glucose control in preclinical models. You believe it could address the unmet need of patients with concurrent heart failure and type 2 diabetes, a growing population facing high mortality and limited therapy options. Existing drugs (ACE inhibitors, SGLT2 inhibitors, GLP-1 agonists) address single pathways; BIO-217 targets a novel mechanism. Your team is at the Pre-IND stage, preparing to meet with the FDA.
Your design challenge: How do we design a clinical program that maximizes patient benefit, reduces development risk, and accelerates market access while maintaining scientific rigor?
Discovery Phase
Immersion: Your team spends 2 weeks in a heart failure clinic and a diabetes specialty center. You observe:
Patients with both conditions are often elderly, frail, with multiple comorbidities (kidney disease, hypertension). Polypharmacy is the norm; adherence is low.
Clinic workflow: 15-minute appointments, rushed cardiologists unfamiliar with glucose management; endocrinologists unaware of cardiac status. Siloed care model.
Patient perspective: "No one coordinates my care. My cardiologist says to avoid salt; my endocrinologist never mentions it. I'm on 12 pills. The side effects are worse than the disease."
Payer perspective (from health plan medical directors): "We'll pay premium price if you show simultaneous improvement in ejection fraction and HbA1c. Single-pathway drugs already exist."
Key insights: The unmet need is not just pharmacological—it's care coordination, simplicity, and simultaneous benefit. Regulatory approval for "heart failure and diabetes" (not just one indication) would be valuable but unprecedented.
Solution Phase
Regulatory Strategy Redesign:
Indication scope: Propose Phase III enrollment of patients with HF + T2D (dual diagnosis), not HF-only or T2D-only. Argue to FDA that this population is clinically relevant and underserved.
Efficacy endpoints: Primary endpoint = cardiac function (ejection fraction improvement); secondary endpoint = glucose control (HbA1c reduction). Co-primary analysis to emphasize dual benefit. Request FDA feedback via Pre-IND meeting.
Real-world outcomes: Partner with a disease registry (e.g., GWTG-HF) to track post-approval outcomes: medication adherence, hospitalizations, quality of life, caregiver burden. Build this into your development plan now.
Trial Design Refinement:
Inclusion criteria: Deliberately include women (40% target; typical pharma trials are male-heavy), older patients (65+), minority populations. Address historical inequities head-on.
Site selection: Recruit trial sites in underserved communities, not just academic medical centers. Partner with federally qualified health centers (FQHCs) for diversity and real-world applicability.
Patient advisory board: Recruit 8-10 patients with lived experience of dual diagnosis. They help refine inclusion/exclusion criteria, advise on patient burden (visit frequency, blood draws), suggest outcomes that matter (e.g., sexual dysfunction is common but rarely measured).
Access & Affordability:
Payer engagement early: Schedule health economic meetings with NICE, HAS, major US payers pre-Phase III. Show them your patient journey data and ask: "What evidence would convince you this is a cost-effective therapy?" Tailor endpoints to align with payer priorities.
Pricing model: Propose outcome-based contract for first-year launch (e.g., if HbA1c doesn't drop >1%, price discount applies). Pharma risks revenue hit but gains payer confidence and rapid formulary coverage.
Implementation Phase
Phase III Execution & Beyond:
Adaptive trial design: Include pre-planned interim analysis; allow for expansion to additional T2D severities if efficacy signal is strong. Reduces risk of failed trial and speeds approval.
Parallel regulatory submissions: Engage EMA (European Medicines Agency) early; pursue centralized procedure for faster EU approval after US.
Manufacturing scale-up: Identify CDMO partner 18 months pre-NDA (not at the last minute). Test supply chain resilience for dual therapy positioning (higher demand expected).
Phase IV commitments: Propose proactive post-approval studies on medication adherence, cardiovascular outcomes in diverse populations, drug-drug interactions with common comorbidity therapies. This builds trust with regulators and payers.
Launch playbook: Pre-approve talking points with compliance teams. Train sales reps on dual indication messaging. Prepare responses to inevitable questions about cost and access disparities.
Scope: This reference scenario illustrates how empathy for fragmented care, patient heterogeneity, and payer risk management can drive better regulatory strategy, more inclusive trial design, and faster access to therapy. DT methods (user observation, co-design with patients, value workshops) surface these insights earlier, reducing late-stage regulatory and commercial surprises. The "solution" is not just a better drug—it's a better development & access model informed by stakeholder needs.
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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- microsoft/hve-core · .github/skills/design-thinking/dt-methods · commit f425e94
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- MIT License (redistribution allowed)
- LICENSE (added by AutoGineer from LICENSE)
- ATTRIBUTION.md (written by AutoGineer)
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