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vasilyu1983/AI-Agents-public/frameworks/shared-skills/skills/software-solution-architecture/SKILL.md

software-solution-architecture

Designs cross-system target states and transition plans from business workflows and system boundaries. Use when comparing end-to-end solution options or phased migrations.

Source repository stars
82
Declared platforms
2
Static risk flags
0
Last source update
2026-08-21
Source checked
2026-08-28

Decision brief

What it does: where it fits

Use this skill when the question starts from a business workflow, operating model, system landscape, or transition problem rather than from a single service or deployable boundary.

Best for

  • Cross-system target architecture
  • End-to-end business flow design across several services or platforms
  • Integration landscape design and dependency mapping

Not for

  • Deep runtime or distributed-system design → ../software-architecture-design/SKILL.md
  • Single-service implementation → ../software-backend/SKILL.md

Compatibility matrix

Platform support, with evidence labels

PlatformStatusEvidenceWhat to check
CodexDeclaredSource recordInstall path and trigger
Claude CodeDeclaredSource recordInstall path and trigger
CursorNot declaredNo explicit evidencePortability before use
Gemini CLINot declaredNo explicit evidencePortability before use
Open the compatibility checker

Installation

Inspect first. Install second.

The source command is displayed only when detected. A safe inspection prompt is always available so your agent can explain every action before execution.

Source-detected install commandSource
npx skills add https://github.com/vasilyu1983/AI-Agents-public --skill "frameworks/shared-skills/skills/software-solution-architecture"
Safe inspection promptEditorial

Inspect the Agent Skill "software-solution-architecture" from https://github.com/vasilyu1983/AI-Agents-public/blob/53f6cb73ea53a2646e3e7d4665062ad66f3683ac/frameworks/shared-skills/skills/software-solution-architecture/SKILL.md at commit 53f6cb73ea53a2646e3e7d4665062ad66f3683ac. List every install step, command, network request, credential, file read/write, external action, and rollback step. Explain whether it fits my task. Do not install or execute anything until I approve.

Workflow

What the source asks the agent to do

  1. 01

    Default Workflow

    1. Define the business scenario, actors, and success measures. 2. Map current systems, ownership boundaries, and the critical pain points. 3. Map business capabilities to system owners and systems of record. 4. Capture hard constraints: compliance, latency, data residency, legac…

    Define the business scenario, actors, and success measures.Map current systems, ownership boundaries, and the critical pain points.Map business capabilities to system owners and systems of record.
  2. 02

    Verification Checklist

    Before finalizing a solution recommendation:

    [ ] Business problem and success measures defined in non-technical terms[ ] Every participating system has an explicit owner and system-of-record role stated[ ] Hard constraints captured: compliance, latency, data residency, vendor limits, rollout limits
  3. 03

    Quick Reference

    Review the “Quick Reference” section in the pinned source before continuing.

    Review and apply the “Quick Reference” source section.
  4. 04

    When to Use This Skill

    Cross-system target architecture

    Cross-system target architectureEnd-to-end business flow design across several services or platformsIntegration landscape design and dependency mapping
  5. 05

    When NOT to Use This Skill

    Deep runtime or distributed-system design → ../software-architecture-design/SKILL.md

    Deep runtime or distributed-system design → ../software-architecture-design/SKILL.mdSingle-service implementation → ../software-backend/SKILL.mdAPI contract depth → ../dev-api-design/SKILL.md

Permission review

Static risk signals and limitations

No configured static risk pattern was detected

This is not proof of safety. Runtime behavior, indirect dependencies, and hidden external systems are outside the static scan.

Evidence record

Why each signal appears

EvidenceSourceComputedTestedEditorial
SignalValueEvidence typeMeaning
Quality score96/100ComputedDocumentation, specificity, maintenance, and trust rules
Repository stars82SourceRepository attention, not individual Skill quality
Compatibility2 platformsSourceDeclared in the catalog source record
Usage guideautomated source guideEditorialGenerated or reviewed according to the visible evidence level

Pinned source

Provenance and original SKILL.md

Repository
vasilyu1983/AI-Agents-public
Skill path
frameworks/shared-skills/skills/software-solution-architecture/SKILL.md
Commit
53f6cb73ea53a2646e3e7d4665062ad66f3683ac
License
MIT
Collected
2026-08-28
Default branch
main
View the original SKILL.md

Software Solution Architecture

Use this skill when the question starts from a business workflow, operating model, system landscape, or transition problem rather than from a single service or deployable boundary.

This skill chooses the solution shape first. It does not default to runtime patterns such as modular monolith vs microservices, CQRS, service mesh, or MCP/A2A until the business flow, participating systems, and transition shape are already clear.

Start here for:

  • target architecture across multiple systems or domains
  • business journeys that cross product, integration, data, and operational boundaries
  • solution options and tradeoffs before deeper runtime design
  • system-of-record, ownership, and trust-boundary mapping across the landscape
  • phased migration or coexistence design with interim and final states
  • regulated or enterprise contexts where the main problem is stitching systems together coherently

Use ../software-architecture-design/SKILL.md after the solution shape is known and the next question is service decomposition, distributed consistency, platform engineering, or runtime topology.

Quick Reference

NeedDefault moveRead next
Design a target solution across multiple systemsMap business flow to systems, responsibilities, and constraints before choosing patternsreferences/solution-workflow.md
Compare integration styles and boundariesChoose API, event, batch, file, webhook, BFF, or anti-corruption boundaries from a decision matrixreferences/integration-and-boundary-patterns.md
Map capabilities, owners, and systems of recordCapture business capability, owning team, boundary type, and source-of-truth decisionsassets/planning/capability-boundary-map.md
Plan a phased migrationDefine current, interim, and target states with coexistence, cutover, and rollback rulesreferences/transition-architecture.md
Sequence delivery into safe wavesCapture migration wave entry, rollback, and retirement criteriaassets/planning/transition-wave-planner.md
Package the final recommendationSummarize target state, options, transition, risks, and handoffsassets/planning/solution-blueprint.md

When to Use This Skill

  • Cross-system target architecture
  • End-to-end business flow design across several services or platforms
  • Integration landscape design and dependency mapping
  • Capability ownership, system-of-record, and trust-boundary decisions
  • Interim-state and final-state solution planning
  • Large migration workstreams with multiple systems changing at different times
  • Solution option analysis before coding or service decomposition

When NOT to Use This Skill

Boundary Rules

  • This skill owns the system landscape, option comparison, and transition shape.
  • This skill should name what stays untouched, what changes now, and what is intentionally deferred.
  • This skill should stop short of deciding deployable-unit count, internal service topology, or deep consistency mechanisms inside a chosen solution.
  • Once the main question becomes runtime boundaries, bounded contexts, resilience internals, or platform defaults, hand off to ../software-architecture-design/SKILL.md.

Default Workflow

  1. Define the business scenario, actors, and success measures.
  2. Map current systems, ownership boundaries, and the critical pain points.
  3. Map business capabilities to system owners and systems of record.
  4. Capture hard constraints: compliance, latency, data residency, legacy dependencies, vendor limits, and rollout limits.
  5. Propose 2-3 viable solution options at the system-landscape level.
  6. Choose a target state and, if needed, the minimum viable interim state.
  7. Define system responsibilities, integration style, data movement, trust boundaries, and validation checkpoints.
  8. Sequence migration waves with rollback points, coexistence rules, and retirement criteria.
  9. Hand deeper slices to companion skills for software architecture, APIs, security, or platform ops.

ASCII Flow

Solution architecture request
  -> Define business scenario, actors, and success measures
  -> Map current systems, owners, records, and pain points
  -> Compare target-state options and interim-state needs
  -> Choose system responsibilities, integrations, data flows, and trust boundaries
  -> Sequence migration waves with rollback and retirement criteria
  -> Hand deep runtime, API, security, or platform slices to companion skills

Required Output Shape

Every recommendation should include:

  • problem statement and system scope
  • explicit in-scope and intentionally out-of-scope boundaries
  • capability, ownership, and system-of-record summary
  • current-state and target-state summary
  • interim-state summary when the change is phased
  • recommended option plus rejected alternatives
  • integration and data-flow shape
  • migration-wave plan with rollback or exit criteria when relevant
  • top risks, failure modes, and validation checkpoints
  • what NOT to decide yet
  • explicit handoffs to companion skills
  • an ADR (or ADR-ready summary) for each option decision: context, decision, status, consequences — so the rejected alternatives are traceable later, not just the winner

Integration Style Decision

SituationChooseWhy
Synchronous request with immediate response neededREST/GraphQL APICaller needs the result to proceed; latency SLA known
One event triggers many downstream consumersEvent bus (Kafka, SNS, EventBridge)Decouples publishers from consumers; enables fan-out
Bulk data movement between systems on a scheduleBatch / fileHigh volume; latency tolerance exists; no real-time requirement
Upstream system is authoritative and rate-limited or politically hard to changeAnti-corruption layer (ACL)Prevents downstream from inheriting upstream's model and constraints
Browser/mobile needs tailored API across multiple backend servicesBFF (Backend for Frontend)Reduces over-fetching; isolates client contract from service internals
External system pushes events to your systemWebhook (inbound)Source system owns event timing; polling would waste quota
Your system pushes state changes to external consumersWebhook (outbound)Receivers need near-real-time without polling

Build vs Buy vs Partner

SignalLean towardWhyWatch out for
Capability is undifferentiated and a mature vendor covers it (e.g., KYC, payments processing, email delivery)BuyFaster time-to-value; vendor carries compliance and scaling burdenVendor lock-in on data export, pricing tiers that punish growth
Capability is the core differentiator the business competes onBuildBuying core differentiation means competitors can buy the same thingSunk-cost bias toward building things that are actually commodity
Capability needs deep, ongoing integration with proprietary internal data or workflowBuild or heavily customizeOff-the-shelf tools rarely model idiosyncratic internal processes wellUnderestimating integration cost when "buy" quotes look cheap in isolation
No internal team can own long-term operation of a built solutionBuy or partnerAn unowned custom system decays faster than a supported vendor productChoosing "build" because of a one-time budget cycle, ignoring run-cost ownership
Regulatory or contractual terms require a named, audited third partyPartner (regulated vendor)Some obligations cannot be satisfied by an internal buildAssuming vendor certification covers the whole integration surface, not just the vendor's own boundary

Treat vendor capability claims as unverified until checked against the organization's actual constraints (data residency, auth model, support SLA, exit/export terms) — a capability that exists in a datasheet is not the same as a capability that fits this landscape's ownership and compliance boundaries.

Team Topology and Conway's Law Check

Conway's Law predicts that the system landscape will mirror the organization's communication structure, whether or not that mirroring is intentional. Before finalizing a target state:

  • Name which team owns each system-of-record and each integration boundary; a boundary with no clear owning team will accumulate ad hoc, undocumented coupling.
  • Check whether the proposed target state requires a team structure that does not exist yet (e.g., a shared platform team, a new domain team). If so, the transition plan must include the org-design change as an explicit dependency, not an assumption.
  • Prefer target states that match likely team boundaries over target states that are architecturally elegant but require cross-team coordination on every change — coordination cost is a real cost, not a rounding error.
  • When a target state deliberately goes against current team structure (an "inverse Conway maneuver" to force a desired architecture), say so explicitly and name who owns driving the org change; do not let this be an implicit side effect of the diagram.

Verification Checklist

Before finalizing a solution recommendation:

  • Business problem and success measures defined in non-technical terms
  • Every participating system has an explicit owner and system-of-record role stated
  • Hard constraints captured: compliance, latency, data residency, vendor limits, rollout limits
  • 2-3 solution options compared with explicit reasons for rejection of alternatives
  • Integration style chosen from decision table above, not defaulted to API everywhere
  • Interim state defined when change is phased (not just current and target)
  • Migration wave has rollback criteria, exit conditions, and retirement plan
  • What NOT to decide yet is stated explicitly
  • Handoffs to companion skills (architecture, API, security, platform) named
  • Each option decision has an ADR or ADR-ready summary (context, decision, status, consequences)
  • Build/buy/partner reasoning stated for any capability considered for a vendor or platform purchase
  • Target state checked against actual team ownership (Conway's Law); org-design dependencies named if the target state requires teams that do not yet exist

Known Traps

  • Jumping from business pain directly to microservices, event buses, or platform purchases before clarifying ownership and system-of-record boundaries.
  • Drawing a clean target state that ignores interim coexistence, contract duplication, or rollback constraints the organization must actually live through.
  • Treating integrations as symmetric when one side is authoritative, rate-limited, legally constrained, or politically hard to change.
  • Letting future-state diagrams hide current operational pain such as manual workarounds, support load, or data reconciliation burden.
  • Choosing one transition wave that spans too many teams, too many systems, or too much irreversible data movement.
  • Mistaking enterprise tool capabilities for guaranteed adoption, governance, or runtime fit without validating team ownership and operating model.
  • Recommending "buy" for a capability that is the business's actual differentiator, or "build" for a commodity capability a mature vendor already solves, without stating the tradeoff explicitly.
  • Designing an elegant target-state diagram that silently requires a team structure the organization does not have, without naming the org-design dependency.

Common Anti-Patterns

  • Producing a solution recommendation that is really a runtime architecture preference in disguise.
  • Treating every boundary as an API problem when batch, file, event, or anti-corruption patterns fit the landscape better.
  • Hand-waving trust boundaries, stewardship, and source-of-truth conflicts as implementation details.
  • Writing migration plans with start and end states only, leaving no explicit interim controls, exit criteria, or retirement plan.
  • Forcing standardization on one platform everywhere when the cost of replacement exceeds the business value of uniformity.

Navigation

References

Templates

Validation

  • evals/evals.json — trigger, non-trigger, and near-boundary behavioral checks for this skill

Related Skills

Fact-Checking

  • Known bugs, regressions, framework/compiler/runtime footguns, and version-specific crash or workaround guidance must be verified against current primary web sources before being treated as current fact.
  • Verify version-sensitive claims about cloud services, managed integration products, platform limits, or vendor lifecycle before final answers.
  • Prefer primary sources for cloud patterns, migration guidance, and standards.
  • If live verification is unavailable, separate durable solution-architecture guidance from unverified vendor specifics.
  • Treat named managed-migration or refactoring services (e.g., a cloud vendor's specific "assisted decomposition" tooling) as high-churn: vendors retire, rename, or fold these into newer offerings faster than the durable pattern (strangler fig, ACL, expand/contract) they implement changes. Cite the durable pattern; hedge the specific product name and its current availability.

Learnings Loop

Before applying this skill on a non-trivial task, read learnings.consolidated.md in this directory (and learnings.md if present).

After applying it, if you encountered a pattern worth remembering, a mistake worth preventing, or a domain fact that surprised you, append one dated bullet to learnings.md via agents-skills-feedback-loop/scripts/append_learning.py. Do not modify SKILL.md itself.

Frequently asked questions

What to verify before installation and use

What does the software-solution-architecture source document cover?

Use this skill when the question starts from a business workflow, operating model, system landscape, or transition problem rather than from a single service or deployable boundary.

How do I install software-solution-architecture?

The source record exposes this install command: npx skills add https://github.com/vasilyu1983/AI-Agents-public --skill "frameworks/shared-skills/skills/software-solution-architecture". Inspect the command and pinned source before running it.

Which Agent platforms does the source record declare?

The pinned source record declares support for: codex, claude code.

Alternatives

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