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Before

Oct 27, 2026 · 01:02 UTC

Explore current products, enterprise systems, models, developer interfaces, and available host tools to discover and test capabilities that improve an AI solution. Use for open-ended technical exploration, platform or model choices, buy/...

After

Oct 28, 2026 · 13:10 UTC

Discover and test what current AI products, models, runtimes, and enterprise tools can accomplish on a meaningful task. Use for capability exploration, platform choices, buy/adapt/build decisions, and finding a better way to deliver an AI

Skill instructions

Before

Oct 27, 2026 · 01:02 UTC

Explore current products, enterprise systems, models, developer interfaces, and available host tools to discover and test capabilities that improve an AI solution. Use for open-ended technical exploration, platform or model choices, buy/...

After

Oct 28, 2026 · 13:10 UTC

Discover and test what current AI products, models, runtimes, and enterprise tools can accomplish on a meaningful task. Use for capability exploration, platform choices, buy/adapt/build decisions, and finding a better way to deliver an A...

Supporting files

Before

Oct 27, 2026 · 01:02 UTC

[{"relative_path":"references/workbench-probe.md","size_in_bytes":6466}]

After

Oct 28, 2026 · 13:10 UTC

[{"relative_path":"references/engineering-migration.md","size_in_bytes":5157}]

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SKILL.md text changes

− removed · + added

--- before
+++ after
@@ -1,83 +1,44 @@
 ---
 name: capability-exploration
-description: Explore current products, enterprise systems, models, developer interfaces, and available host tools to discover and test capabilities that improve an AI solution. Use for open-ended technical exploration, platform or model choices, buy/adapt/build decisions, and finding a maintainable way to deliver a specific workflow.
+description: Discover and test what current AI products, models, runtimes, and enterprise tools can accomplish on a meaningful task. Use for capability exploration, platform choices, buy/adapt/build decisions, and finding a better way to deliver an AI workflow.
 ---
 
 # Capability exploration
 
-Discover what can usefully be done in this environment and develop the best path to the requested outcome. Research, inspection, and experiments should change the solution or settle a consequential choice. Use the user's requirements and existing decisions as a starting point while remaining alert to capabilities that enable a better experience than the brief anticipated.
+Find the strongest practical way to complete the work. Explore the combination of model, business context, tools, and execution environment before freezing the solution. A useful discovery can change the task people delegate, the product they use, or how much custom software they need.
 
-Work at the level of the decision. Selecting a model inside an approved application, extending a licensed product, and designing a new service have different scopes. Preserve chosen platforms unless the task includes reconsidering them or a demonstrated limitation requires discussion. Make a recommendation when the available evidence supports one and complete authorized exploratory work rather than stopping at a comparison plan.
+## Give the system meaningful work
 
-## Start with a task worth trying
+Start with a representative assignment and a recognizable finished result: investigate an incident and restore the affected service, migrate a repository and pass its acceptance checks, or produce a research brief that resolves a decision. Identify what makes the work difficult and what an experienced person would inspect to accept it.
 
-Choose a representative task or situation that exposes what the solution must accomplish. Recover its input, useful outcome, environment, and consequential variation. A concrete renewal case, disputed invoice, engineering specification, or investigation provides a better basis for exploration than a list of desired AI features.
+Keep room for a better outcome than the initial feature request. "Summarize our tickets" could become investigating recurring failures, reproducing one, and preparing a tested fix. Establish whether that broader assignment serves the user's objective; then explore the capability that would make it possible.
 
-Identify the uncertainty that could most change the design: interpreting a difficult document, preserving record access, assembling information from several systems, keeping a long task alive, creating an editable artifact, performing a business operation, or supporting the needed interaction. Follow the uncertainty in this task; these examples are not a prescribed capability taxonomy.
+## Discover the available building blocks
 
-Keep space for invention. A requirement such as “summarize these cases” may describe what the user already believes possible. Discovering that the environment can compare revisions, resolve business entities, or continue work after a new event may suggest a more useful service. Explain the proposed change in terms of the user's outcome and retain the original objective.
+Inspect the host's tools, skills, files, applications, and authorized account surfaces. Follow promising capabilities through operator, administrator, and developer interfaces. An incumbent product may already provide the work surface, permissions, source relationships, or task lifecycle that a proposed new application would otherwise recreate.
 
-## Enter the environment through its useful surfaces
+Research current primary documentation where capability or fit remains uncertain. Check the model and the product or runtime exposing it: available tools, supported inputs, execution duration, background work, recovery, deployment locations, and data handling can differ. Verify the commercial or operational constraint that affects this choice, including licensing, quotas, and cost.
 
-Inspect what is available to the running host: connected tools, callable metadata, relevant skills, supplied files, existing applications, repositories, and authorized account or browser surfaces. Use purpose-built interfaces where they expose the required behavior clearly. Read a capability's actual description and input/output semantics before relying on its name. Missing exposure to this host does not establish that the underlying product lacks the capability.
+Investigate unfamiliar approaches when they could change the outcome. A workforce product, an extension to an enterprise application, a managed agent service, and an application with its own runtime solve different parts of the problem. Compare the plausible arrangements for this task. Widen the search while a consequential gap remains; stop when further candidates are unlikely to change the decision.
 
-Explore the customer's environment as well as the market. An installed system may already own a case lifecycle, document relation, approval, or operator view that would be expensive to recreate. Its useful capability can be visible in different places:
+## Test the whole configuration
 
-- The operator experience shows how work is opened, inspected, changed, and completed. It reveals context available at the moment of use and often exposes product functions absent from a generic API overview.
-- Administrative and configuration surfaces show enabled features, entitlement, scope, identity, extension settings, and operating constraints. A visible feature in a public demonstration does not establish that the customer's account can use it.
-- Developer and integration surfaces show accessible objects, events, supported extensions, callable operations, execution behavior, and deployment boundaries. Inspect examples and schemas that touch the task, including their limitations.
-- Operational material shows how the capability is supported, upgraded, observed, and recovered when something fails. This matters when the solution will depend on it repeatedly.
+Begin with a capable configuration suited to the difficult work and references that convey the intended result: business definitions, working examples, source code, executable acceptance checks, or a detailed design. Keep useful detail accessible as the task develops. This establishes a credible capability ceiling; then improve economics and operating fit while preserving the result that matters.
 
-Traverse the surfaces that answer the evolving question. A discovered action may lead to its object schema, which may reveal an existing business relation, which may remove the need for a separate data model. A supported extension may alter the interface design. A durable case function may change where task progress belongs. Follow promising affordances far enough to understand their implications instead of freezing the architecture before exploration.
+Let the system investigate, create, inspect its results, and revise its approach. When it stalls, identify the missing capability: can it run the application, inspect logs, query the relevant state, or exercise the receiving workflow? Improve that access or interface and retry the assignment. More instructions to verify work cannot replace a usable verification path.
 
-Use the access the user has provided. Discovery can proceed through read-only inspection and reversible local work; account changes, installations, production actions, and paid experiments follow the task's existing authorization. If an inaccessible surface controls the decision, identify the exact question and the least burdensome way to answer it while continuing independent investigation.
+Record the configuration and inspect both the delivered artifact and the resulting environment. Measure completion, quality, elapsed time, human repair, and cost at the level of accepted work. Use comparable tasks when comparing candidates. Repeat variable results and distinguish shortcomings in reasoning from missing context, weak tool descriptions, access failures, or runtime behavior.
 
-## Search outward where a gap or a possibility warrants it
+When upgrading a model or runtime, also test a simpler arrangement. Fixed task splits, forced context resets, or repeated review loops may compensate for a limitation that has changed. Remove them when representative results support it, while retaining business requirements and enforced permissions. Test whether the new configuration can own a larger useful assignment as well as perform the old one faster.
 
-Form searches from the work and the unresolved behavior, including the relevant enterprise ecosystem. Search for ways to accomplish the outcome as well as the name of a presumed feature. The useful result might be a native product function, a maintained extension, a different interaction, a model capability, or a combination that was absent from the initial design.
+Choose additional probes from the claim the design depends on. Test resumption if tasks cross sessions; exercise the receiving system if the value depends on an action; inspect editability if the deliverable is a working document. Keep simulated behavior and executed product behavior distinguishable.
 
-Read current primary technical material for promising candidates, then inspect relevant examples, feature limitations, release or migration notes, and the selected deployment surface. Product availability, versions, licensing, retention, quotas, and pricing change; settle the facts that affect this choice at task time. A public claim can justify investigation, while detailed documentation and a representative probe establish what the design may rely on.
+Read [the engineering migration probe](references/engineering-migration.md) when the question is whether a model and harness can own substantial work through a tested artifact and an interruption.
 
-Track the exact configuration where it matters. A named model exposed through one product may have different tool access, context handling, lifecycle, or regional availability through another. A function can exist in an interactive product but lack the required unattended interface. An inference endpoint, a file store, and a trace service can have different data handling. Follow the proposed flow far enough to see those differences.
+## Turn observations into a choice
 
-Investigate alternatives proportionately. Search beyond familiar names when a consequential gap remains or an unfamiliar approach could materially improve the result. Stop widening the search when additional candidates are unlikely to change the choice. The output should make the useful discovery accessible; the user should not have to reconstruct it from a bibliography.
+Describe the recommended arrangement as something a team can operate: where people work, what the agent completes, which systems supply context and receive actions, where progress persists, and who maintains the custom parts.
 
-## Put promising capabilities to work
+Choose managed or owned execution based on the responsibilities the workload requires. A managed runtime can supply lifecycle and execution facilities; an owned runtime can support unusual network, tool, or control requirements. Inspect the chosen service's current interfaces before assigning it either advantage. A capable employee product may already be sufficient.
 
-Use a small but discriminating piece of the workflow to test the capability. Inspect sample outputs, try relevant controls, call available operations with authorized inputs, or build a local experiment where appropriate. Extend the probe when a result reveals another important question. Reading all the documentation before trying anything can leave the most consequential misunderstanding intact.
-
-Design probes around the claim the solution needs. If the benefit comes from comparing revised agreements, a single clean agreement tests too little. If it depends on using current operational state, a static fixture cannot establish freshness. If it depends on a case continuing after an interruption, inspect the retained state and resumption behavior. Use the smallest experiment that meaningfully tests the proposition, even when that experiment requires several connected steps.
-
-Observe both the capability and its composition with the workflow:
-
-- A connector may return permitted documents while its search operation applies a different scope. Try the relevant retrieval path, not just a successful connection.
-- A long-running operation may finish correctly while leaving the user unable to recover or amend it. Inspect how progress, cancellation, and a changed input are represented.
-- A model may extract accurate facts while missing the relationship needed for the decision. Examine the complete task output, such as whether the applicable amendment changes the proposed action.
-- A generated artifact may render attractively while losing the editability, formulas, citations, or downstream import behavior the user needs. Inspect it in the intended receiving environment when possible.
-- A tool may acknowledge a request while the business operation remains pending. Establish what its receipt means and how the authoritative result is obtained.
-
-Use these examples only where they apply. The purpose is to find what the proposed service can rely on and where its design must adapt.
-
-When testing intelligence, first establish a credible capability ceiling with a configuration suited to the difficult work. Then explore cost, latency, and operational fit without discarding necessary quality. A weak initial configuration can create a false conclusion that the task is impossible; an expensive successful demonstration can conceal unacceptable operating economics. Compare task-appropriate configurations on equivalent outcomes and inspect why they differ.
-
-Explain a failed probe by layer. Determine whether the problem comes from unsupported capability, account access, tool exposure, input preparation, configuration, task ambiguity, or the capability's observed limit. An authentication error says little about task quality. A retrieval miss may reflect an indexing or permission issue. Try a materially different hypothesis when the evidence supports it, then revise the design rather than repeatedly retrying the same path.
-
-## Assemble coherent choices
-
-Describe each serious option as a working arrangement. Identify where the user works, where business state lives, how intelligence obtains context and performs work, what connects it to the enterprise, and who maintains the parts. Separate decisions that can vary independently: product experience, model, inference location, execution environment, orchestration, data, and integration. Combine them according to the task rather than treating one vendor label as the whole architecture.
-
-Consider reuse, configuration, supported extension, custom components, and combinations on their merits. A native product may save substantial integration work but limit the desired interaction. A custom experience may be justified by a high-value workflow while using maintained services underneath. An open-weight model may provide useful deployment or adaptation options, but its host, data flows, license, and operational burden still determine fit. A managed service may remove infrastructure work while creating an important dependency or export constraint. None of these properties settles the entire choice.
-
-Compare the tradeoffs that affect accepted work. Include task quality, operator review, integration effort, maintenance ownership, latency and capacity, total cost, lifecycle, and exit where consequential. Derive the comparison from the workflow: an overnight preparation job and a live customer conversation value different behavior. A cheap attempt can become an expensive accepted result if it needs retries or expert rework.
-
-Investigate the seam that can overturn the recommended arrangement. If the solution relies on a source's permissions, a case engine's human handoff, or a runtime's resumability, probe that seam before elaborating secondary features. State a working assumption when direct verification is unavailable, show what changes if it fails, and recommend the next action that resolves it. Keep useful design moving around that dependency.
-
-## Worked exploration when a seam determines the design
-
-Read [the engineering-workbench probe](references/workbench-probe.md) when an apparently available capability must be tested across a source change, an interruption or an access boundary. The illustrative traces show why a successful tool response can support the wrong architecture, and distinguish what a local fixture establishes from what requires a live product and account.
-
-## Leave the user with a decision and a usable discovery
-
-Present the recommended arrangement and why it fits this work. Show the discoveries that changed the thinking, relevant observations from probes, the material alternative, and the uncertainty that could reverse the choice. Preserve supporting technical sources and useful experiment artifacts without making a source register the main result.
-
-When a promising capability is proven enough for the next step, apply it to the requested output or carry it into solution design. When it is limited, develop the corresponding boundary or alternative. Revisit the recommendation when the workload, operating constraints, or dependent capabilities change. The durable knowledge is how the parts serve this task and what their boundaries imply, not a standing ranking of products.
+Explain the discovery that changed the design, the material alternative, and the unresolved fact that could reverse the recommendation. Carry successful probes into the requested solution or implementation. Preserve useful artifacts and primary sources so the next team can reproduce the reasoning. Revisit the choice when the workload or available capabilities change; keep the selection method durable.
Full technical diff · 3 changed fields

changed /description

BEFORE
"Explore current products, enterprise systems, models, developer interfaces, and available host tools to discover and test capabilities that improve an AI solution. Use for open-ended technical exploration, platform or model choices, buy/adapt/build decisions, and finding a maintainable way to deliver a specific workflow."
AFTER
"Discover and test what current AI products, models, runtimes, and enterprise tools can accomplish on a meaningful task. Use for capability exploration, platform choices, buy/adapt/build decisions, and finding a better way to deliver an AI workflow."

changed /included_files

BEFORE
[
  {
    "relative_path": "references/workbench-probe.md",
    "size_in_bytes": 6466
  }
]
AFTER
[
  {
    "relative_path": "references/engineering-migration.md",
    "size_in_bytes": 5157
  }
]

changed /skill_md_contents

BEFORE
"---\nname: capability-exploration\ndescription: Explore current products, enterprise systems, models, developer interfaces, and available host tools to discover and test capabilities that improve an AI solution. Use for open-ended technical exploration, platform or model choices, buy/adapt/build decisions, and finding a maintainable way to deliver a specific workflow.\n---\n\n# Capability exploration\n\nDiscover what can usefully be done in this environment and develop the best path to the requested outcome. Research, inspection, and experiments should change the solution or settle a consequential choice. Use the user's requirements and existing decisions as a starting point while remaining alert to capabilities that enable a better experience than the brief anticipated.\n\nWork at the level of the decision. Selecting a model inside an approved application, extending a licensed product, and designing a new service have different scopes. Preserve chosen platforms unless the task includes reconsidering them or a demonstrated limitation requires discussion. Make a recommendation when the available evidence supports one and complete authorized exploratory work rather than stopping at a comparison plan.\n\n## Start with a task worth trying\n\nChoose a representative task or situation that exposes what the solution must accomplish. Recover its input, useful outcome, environment, and consequential variation. A concrete renewal case, disputed invoice, engineering specification, or investigation provides a better basis for exploration than a list of desired AI features.\n\nIdentify the uncertainty that could most change the design: interpreting a difficult document, preserving record access, assembling information from several systems, keeping a long task alive, creating an editable artifact, performing a business operation, or supporting the needed interaction. Follow the uncertainty in this task; these examples are not a prescribed capability taxonomy.\n\nKeep space for invention. A requirement such as “summarize these cases” may describe what the user already believes possible. Discovering that the environment can compare revisions, resolve business entities, or continue work after a new event may suggest a more useful service. Explain the proposed change in terms of the user's outcome and retain the original objective.\n\n## Enter the environment through its useful surfaces\n\nInspect what is available to the running host: connected tools, callable metadata, relevant skills, supplied files, existing applications, repositories, and authorized account or browser surfaces. Use purpose-built interfaces where they expose the required behavior clearly. Read a capability's actual description and input/output semantics before relying on its name. Missing exposure to this host does not establish that the underlying product lacks the capability.\n\nExplore the customer's environment as well as the market. An installed system may already own a case lifecycle, document relation, approval, or operator view that would be expensive to recreate. Its useful capability can be visible in different places:\n\n- The operator experience shows how work is opened, inspected, changed, and completed. It reveals context available at the moment of use and often exposes product functions absent from a generic API overview.\n- Administrative and configuration surfaces show enabled features, entitlement, scope, identity, extension settings, and operating constraints. A visible feature in a public demonstration does not establish that the customer's account can use it.\n- Developer and integration surfaces show accessible objects, events, supported extensions, callable operations, execution behavior, and deployment boundaries. Inspect examples and schemas that touch the task, including their limitations.\n- Operational material shows how the capability is supported, upgraded, observed, and recovered when something fails. This matters when the solution will depend on it repeatedly.\n\nTraverse the surfaces that answer the evolving question. A discovered action may lead to its object schema, which may reveal an existing business relation, which may remove the need for a separate data model. A supported extension may alter the interface design. A durable case function may change where task progress belongs. Follow promising affordances far enough to understand their implications instead of freezing the architecture before exploration.\n\nUse the access the user has provided. Discovery can proceed through read-only inspection and reversible local work; account changes, installations, production actions, and paid experiments follow the task's existing authorization. If an inaccessible surface controls the decision, identify the exact question and the least burdensome way to answer it while continuing independent investigation.\n\n## Search outward where a gap or a possibility warrants it\n\nForm searches from the work and the unresolved behavior, including the relevant enterprise ecosystem. Search for ways to accomplish the outcome as well as the name of a presumed feature. The useful result might be a native product function, a maintained extension, a different interaction, a model capability, or a combination that was absent from the initial design.\n\nRead current primary technical material for promising candidates, then inspect relevant examples, feature limitations, release or migration notes, and the selected deployment surface. Product availability, versions, licensing, retention, quotas, and pricing change; settle the facts that affect this choice at task time. A public claim can justify investigation, while detailed documentation and a representative probe establish what the design may rely on.\n\nTrack the exact configuration where it matters. A named model exposed through one product may have different tool access, context handling, lifecycle, or regional availability through another. A function can exist in an interactive product but lack the required unattended interface. An inference endpoint, a file store, and a trace service can have different data handling. Follow the proposed flow far enough to see those differences.\n\nInvestigate alternatives proportionately. Search beyond familiar names when a consequential gap remains or an unfamiliar approach could materially improve the result. Stop widening the search when additional candidates are unlikely to change the choice. The output should make the useful discovery accessible; the user should not have to reconstruct it from a bibliography.\n\n## Put promising capabilities to work\n\nUse a small but discriminating piece of the workflow to test the capability. Inspect sample outputs, try relevant controls, call available operations with authorized inputs, or build a local experiment where appropriate. Extend the probe when a result reveals another important question. Reading all the documentation before trying anything can leave the most consequential misunderstanding intact.\n\nDesign probes around the claim the solution needs. If the benefit comes from comparing revised agreements, a single clean agreement tests too little. If it depends on using current operational state, a static fixture cannot establish freshness. If it depends on a case continuing after an interruption, inspect the retained state and resumption behavior. Use the smallest experiment that meaningfully tests the proposition, even when that experiment requires several connected steps.\n\nObserve both the capability and its composition with the workflow:\n\n- A connector may return permitted documents while its search operation applies a different scope. Try the relevant retrieval path, not just a successful connection.\n- A long-running operation may finish correctly while leaving the user unable to recover or amend it. Inspect how progress, cancellation, and a changed input are represented.\n- A model may extract accurate facts while missing the relationship needed for the decision. Examine the complete task output, such as whether the applicable amendment changes the proposed action.\n- A generated artifact may render attractively while losing the editability, formulas, citations, or downstream import behavior the user needs. Inspect it in the intended receiving environment when possible.\n- A tool may acknowledge a request while the business operation remains pending. Establish what its receipt means and how the authoritative result is obtained.\n\nUse these examples only where they apply. The purpose is to find what the proposed service can rely on and where its design must adapt.\n\nWhen testing intelligence, first establish a credible capability ceiling with a configuration suited to the difficult work. Then explore cost, latency, and operational fit without discarding necessary quality. A weak initial configuration can create a false conclusion that the task is impossible; an expensive successful demonstration can conceal unacceptable operating economics. Compare task-appropriate configurations on equivalent outcomes and inspect why they differ.\n\nExplain a failed probe by layer. Determine whether the problem comes from unsupported capability, account access, tool exposure, input preparation, configuration, task ambiguity, or the capability's observed limit. An authentication error says little about task quality. A retrieval miss may reflect an indexing or permission issue. Try a materially different hypothesis when the evidence supports it, then revise the design rather than repeatedly retrying the same path.\n\n## Assemble coherent choices\n\nDescribe each serious option as a working arrangement. Identify where the user works, where business state lives, how intelligence obtains context and performs work, what connects it to the enterprise, and who maintains the parts. Separate decisions that can vary independently: product experience, model, inference location, execution environment, orchestration, data, and integration. Combine them according to the task rather than treating one vendor label as the whole architecture.\n\nConsider reuse, configuration, supported extension, custom components, and combinations on their merits. A native product may save substantial integration work but limit the desired interaction. A custom experience may be justified by a high-value workflow while using maintained services underneath. An open-weight model may provide useful deployment or adaptation options, but its host, data flows, license, and operational burden still determine fit. A managed service may remove infrastructure work while creating an important dependency or export constraint. None of these properties settles the entire choice.\n\nCompare the tradeoffs that affect accepted work. Include task quality, operator review, integration effort, maintenance ownership, latency and capacity, total cost, lifecycle, and exit where consequential. Derive the comparison from the workflow: an overnight preparation job and a live customer conversation value different behavior. A cheap attempt can become an expensive accepted result if it needs retries or expert rework.\n\nInvestigate the seam that can overturn the recommended arrangement. If the solution relies on a source's permissions, a case engine's human handoff, or a runtime's resumability, probe that seam before elaborating secondary features. State a working assumption when direct verification is unavailable, show what changes if it fails, and recommend the next action that resolves it. Keep useful design moving around that dependency.\n\n## Worked exploration when a seam determines the design\n\nRead [the engineering-workbench probe](references/workbench-probe.md) when an apparently available capability must be tested across a source change, an interruption or an access boundary. The illustrative traces show why a successful tool response can support the wrong architecture, and distinguish what a local fixture establishes from what requires a live product and account.\n\n## Leave the user with a decision and a usable discovery\n\nPresent the recommended arrangement and why it fits this work. Show the discoveries that changed the thinking, relevant observations from probes, the material alternative, and the uncertainty that could reverse the choice. Preserve supporting technical sources and useful experiment artifacts without making a source register the main result.\n\nWhen a promising capability is proven enough for the next step, apply it to the requested output or carry it into solution design. When it is limited, develop the corresponding boundary or alternative. Revisit the recommendation when the workload, operating constraints, or dependent capabilities change. The durable knowledge is how the parts serve this task and what their boundaries imply, not a standing ranking of products.\n"
AFTER
"---\nname: capability-exploration\ndescription: Discover and test what current AI products, models, runtimes, and enterprise tools can accomplish on a meaningful task. Use for capability exploration, platform choices, buy/adapt/build decisions, and finding a better way to deliver an AI workflow.\n---\n\n# Capability exploration\n\nFind the strongest practical way to complete the work. Explore the combination of model, business context, tools, and execution environment before freezing the solution. A useful discovery can change the task people delegate, the product they use, or how much custom software they need.\n\n## Give the system meaningful work\n\nStart with a representative assignment and a recognizable finished result: investigate an incident and restore the affected service, migrate a repository and pass its acceptance checks, or produce a research brief that resolves a decision. Identify what makes the work difficult and what an experienced person would inspect to accept it.\n\nKeep room for a better outcome than the initial feature request. \"Summarize our tickets\" could become investigating recurring failures, reproducing one, and preparing a tested fix. Establish whether that broader assignment serves the user's objective; then explore the capability that would make it possible.\n\n## Discover the available building blocks\n\nInspect the host's tools, skills, files, applications, and authorized account surfaces. Follow promising capabilities through operator, administrator, and developer interfaces. An incumbent product may already provide the work surface, permissions, source relationships, or task lifecycle that a proposed new application would otherwise recreate.\n\nResearch current primary documentation where capability or fit remains uncertain. Check the model and the product or runtime exposing it: available tools, supported inputs, execution duration, background work, recovery, deployment locations, and data handling can differ. Verify the commercial or operational constraint that affects this choice, including licensing, quotas, and cost.\n\nInvestigate unfamiliar approaches when they could change the outcome. A workforce product, an extension to an enterprise application, a managed agent service, and an application with its own runtime solve different parts of the problem. Compare the plausible arrangements for this task. Widen the search while a consequential gap remains; stop when further candidates are unlikely to change the decision.\n\n## Test the whole configuration\n\nBegin with a capable configuration suited to the difficult work and references that convey the intended result: business definitions, working examples, source code, executable acceptance checks, or a detailed design. Keep useful detail accessible as the task develops. This establishes a credible capability ceiling; then improve economics and operating fit while preserving the result that matters.\n\nLet the system investigate, create, inspect its results, and revise its approach. When it stalls, identify the missing capability: can it run the application, inspect logs, query the relevant state, or exercise the receiving workflow? Improve that access or interface and retry the assignment. More instructions to verify work cannot replace a usable verification path.\n\nRecord the configuration and inspect both the delivered artifact and the resulting environment. Measure completion, quality, elapsed time, human repair, and cost at the level of accepted work. Use comparable tasks when comparing candidates. Repeat variable results and distinguish shortcomings in reasoning from missing context, weak tool descriptions, access failures, or runtime behavior.\n\nWhen upgrading a model or runtime, also test a simpler arrangement. Fixed task splits, forced context resets, or repeated review loops may compensate for a limitation that has changed. Remove them when representative results support it, while retaining business requirements and enforced permissions. Test whether the new configuration can own a larger useful assignment as well as perform the old one faster.\n\nChoose additional probes from the claim the design depends on. Test resumption if tasks cross sessions; exercise the receiving system if the value depends on an action; inspect editability if the deliverable is a working document. Keep simulated behavior and executed product behavior distinguishable.\n\nRead [the engineering migration probe](references/engineering-migration.md) when the question is whether a model and harness can own substantial work through a tested artifact and an interruption.\n\n## Turn observations into a choice\n\nDescribe the recommended arrangement as something a team can operate: where people work, what the agent completes, which systems supply context and receive actions, where progress persists, and who maintains the custom parts.\n\nChoose managed or owned execution based on the responsibilities the workload requires. A managed runtime can supply lifecycle and execution facilities; an owned runtime can support unusual network, tool, or control requirements. Inspect the chosen service's current interfaces before assigning it either advantage. A capable employee product may already be sufficient.\n\nExplain the discovery that changed the design, the material alternative, and the unresolved fact that could reverse the recommendation. Carry successful probes into the requested solution or implementation. Preserve useful artifacts and primary sources so the next team can reproduce the reasoning. Revisit the choice when the workload or available capabilities change; keep the selection method durable.\n"
Full snapshot data
{
  "description": "Discover and test what current AI products, models, runtimes, and enterprise tools can accomplish on a meaningful task. Use for capability exploration, platform choices, buy/adapt/build decisions, and finding a better way to deliver an AI workflow.",
  "included_files": [
    {
      "relative_path": "references/engineering-migration.md",
      "size_in_bytes": 5157
    }
  ],
  "name": "capability-exploration",
  "skill_md_contents": "---\nname: capability-exploration\ndescription: Discover and test what current AI products, models, runtimes, and enterprise tools can accomplish on a meaningful task. Use for capability exploration, platform choices, buy/adapt/build decisions, and finding a better way to deliver an AI workflow.\n---\n\n# Capability exploration\n\nFind the strongest practical way to complete the work. Explore the combination of model, business context, tools, and execution environment before freezing the solution. A useful discovery can change the task people delegate, the product they use, or how much custom software they need.\n\n## Give the system meaningful work\n\nStart with a representative assignment and a recognizable finished result: investigate an incident and restore the affected service, migrate a repository and pass its acceptance checks, or produce a research brief that resolves a decision. Identify what makes the work difficult and what an experienced person would inspect to accept it.\n\nKeep room for a better outcome than the initial feature request. \"Summarize our tickets\" could become investigating recurring failures, reproducing one, and preparing a tested fix. Establish whether that broader assignment serves the user's objective; then explore the capability that would make it possible.\n\n## Discover the available building blocks\n\nInspect the host's tools, skills, files, applications, and authorized account surfaces. Follow promising capabilities through operator, administrator, and developer interfaces. An incumbent product may already provide the work surface, permissions, source relationships, or task lifecycle that a proposed new application would otherwise recreate.\n\nResearch current primary documentation where capability or fit remains uncertain. Check the model and the product or runtime exposing it: available tools, supported inputs, execution duration, background work, recovery, deployment locations, and data handling can differ. Verify the commercial or operational constraint that affects this choice, including licensing, quotas, and cost.\n\nInvestigate unfamiliar approaches when they could change the outcome. A workforce product, an extension to an enterprise application, a managed agent service, and an application with its own runtime solve different parts of the problem. Compare the plausible arrangements for this task. Widen the search while a consequential gap remains; stop when further candidates are unlikely to change the decision.\n\n## Test the whole configuration\n\nBegin with a capable configuration suited to the difficult work and references that convey the intended result: business definitions, working examples, source code, executable acceptance checks, or a detailed design. Keep useful detail accessible as the task develops. This establishes a credible capability ceiling; then improve economics and operating fit while preserving the result that matters.\n\nLet the system investigate, create, inspect its results, and revise its approach. When it stalls, identify the missing capability: can it run the application, inspect logs, query the relevant state, or exercise the receiving workflow? Improve that access or interface and retry the assignment. More instructions to verify work cannot replace a usable verification path.\n\nRecord the configuration and inspect both the delivered artifact and the resulting environment. Measure completion, quality, elapsed time, human repair, and cost at the level of accepted work. Use comparable tasks when comparing candidates. Repeat variable results and distinguish shortcomings in reasoning from missing context, weak tool descriptions, access failures, or runtime behavior.\n\nWhen upgrading a model or runtime, also test a simpler arrangement. Fixed task splits, forced context resets, or repeated review loops may compensate for a limitation that has changed. Remove them when representative results support it, while retaining business requirements and enforced permissions. Test whether the new configuration can own a larger useful assignment as well as perform the old one faster.\n\nChoose additional probes from the claim the design depends on. Test resumption if tasks cross sessions; exercise the receiving system if the value depends on an action; inspect editability if the deliverable is a working document. Keep simulated behavior and executed product behavior distinguishable.\n\nRead [the engineering migration probe](references/engineering-migration.md) when the question is whether a model and harness can own substantial work through a tested artifact and an interruption.\n\n## Turn observations into a choice\n\nDescribe the recommended arrangement as something a team can operate: where people work, what the agent completes, which systems supply context and receive actions, where progress persists, and who maintains the custom parts.\n\nChoose managed or owned execution based on the responsibilities the workload requires. A managed runtime can supply lifecycle and execution facilities; an owned runtime can support unusual network, tool, or control requirements. Inspect the chosen service's current interfaces before assigning it either advantage. A capable employee product may already be sufficient.\n\nExplain the discovery that changed the design, the material alternative, and the unresolved fact that could reverse the recommendation. Carry successful probes into the requested solution or implementation. Preserve useful artifacts and primary sources so the next team can reproduce the reasoning. Revisit the choice when the workload or available capabilities change; keep the selection method durable.\n"
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