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Model Solution: Ansible Assessment 04 – Advanced + Security

Type: model solution / grading expectations

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Model Solution: Ansible Assessment 04 – Advanced + Security

Type: model solution / grading expectations

1. Usage Notes

Deep Dive and Submission Example for Usage Notes

A complete treatment of Usage Notes contains both a technical artifact and a short domain explanation. The artifact can be an inventory, a playbook, a role, a template, a Vault file with dummy values, a CI configuration, or an evidence file. The explanation states why this path was chosen and which alternative was deliberately not used.

Submission Part Content Minimum Quality
target description what should be true after the run measurable and without hidden assumptions
scope evidence which hosts are affected output from --list-hosts or inventory graph
implementation which files were changed small reviewable YAML files
validation how it was checked syntax check, check mode, diff, real run, second run
risk decision what can go wrong privileges, secrets, external dependencies, and rollback considered

Minimal Artifacts for Usage Notes

text
submission/
  inventory/hosts.yml
  playbooks/site.yml
  evidence.md
  cleanup.md

For roles or collections, the structure expands:

text
submission/
  ansible.cfg
  collections/requirements.yml
  inventory/hosts.yml
  roles/<role>/defaults/main.yml
  roles/<role>/tasks/main.yml
  roles/<role>/handlers/main.yml
  playbooks/site.yml
  evidence.md

Grading Expectation for Usage Notes

A reviewable solution must be understandable to people who did not run it themselves. Screenshots or uncommented terminal output are not enough. Good evidence states context, command, relevant output, and assessment. If a module behaves differently in check mode, that limitation is explicitly documented.

Transfer to Real Teams

In a team context, Usage Notes is connected to code review, branch rules, CI, role ownership, release notes, and operational approval. Production-like usage also documents ownership, maintenance window, monitoring, alerting, and rollback criteria.

Practical Relevance of Usage Notes

This section is not just a definition. In the workshop, Usage Notes is always validated through a concrete flow: inspect inventory, prove target hosts, check the playbook, simulate the change, run the change, evaluate a second run, and document cleanup. This shows whether Ansible really models desired state or merely executes a command successfully once.

Review Question Expected Answer
Which hosts are affected? Pattern, group, --limit, and inventory output are documented.
Which data sources apply? group_vars, host_vars, defaults, extra vars, and facts are known.
Which privileges are required? become is close to the task and justified.
How is success proven? Syntax check, check mode, diff, play recap, and second run are present.

Example Flow for Usage Notes

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml

The flow is intentionally complete. In real teams, some steps are automated but not skipped. CI can run syntax checks and linting; the domain review of scope, privileges, secret flows, and rollout risk remains a human engineering task.

Review Criteria for Usage Notes

  • Inventory and patterns are narrower than all unless a reason is documented.
  • Modules from ansible.builtin or reviewed collections are preferred.
  • Shell or command tasks include changed_when, failed_when, or a clear reason.
  • Variables are placed predictably and do not override each other surprisingly.
  • Secrets do not appear in plaintext, diffs, debug tasks, or CI logs.
  • The playbook can run repeatedly without unnecessary changes.
  • Cleanup, fix-forward, or controlled acceptance of the target state is documented.

Common Failure Modes for Usage Notes

Failure Cause Diagnosis
wrong hosts targeted pattern or inventory misunderstood --list-hosts, ansible-inventory --host
unreachable SSH, user, Python, or network issue -vvvv, SSH test, inventory variables
unexpected change module not idempotent or wrong data source second run, diff, variable inspection
secret leak debug, diff, or log not scoped check no_log, Vault, CI artifacts
handler does not run no changed result or wrong handler name inspect task result and handler name

Operations Note for Usage Notes

For production-like usage, the lab must become a runbook. The runbook states target systems, owners, prerequisites, stop criteria, expected duration, validation, monitoring, and cleanup. Without those details, a playbook is executable but not operationally mature.

This model solution shows grading expectations. Concrete host names, paths, and output may differ as long as scope, security, and validation are correct.

01 / 08

2. Part A: Model Answers

Deep Dive and Submission Example for Part A: Model Answers

A complete treatment of Part A: Model Answers contains both a technical artifact and a short domain explanation. The artifact can be an inventory, a playbook, a role, a template, a Vault file with dummy values, a CI configuration, or an evidence file. The explanation states why this path was chosen and which alternative was deliberately not used.

Submission Part Content Minimum Quality
target description what should be true after the run measurable and without hidden assumptions
scope evidence which hosts are affected output from --list-hosts or inventory graph
implementation which files were changed small reviewable YAML files
validation how it was checked syntax check, check mode, diff, real run, second run
risk decision what can go wrong privileges, secrets, external dependencies, and rollback considered

Minimal Artifacts for Part A: Model Answers

text
submission/
  inventory/hosts.yml
  playbooks/site.yml
  evidence.md
  cleanup.md

For roles or collections, the structure expands:

text
submission/
  ansible.cfg
  collections/requirements.yml
  inventory/hosts.yml
  roles/<role>/defaults/main.yml
  roles/<role>/tasks/main.yml
  roles/<role>/handlers/main.yml
  playbooks/site.yml
  evidence.md

Grading Expectation for Part A: Model Answers

A reviewable solution must be understandable to people who did not run it themselves. Screenshots or uncommented terminal output are not enough. Good evidence states context, command, relevant output, and assessment. If a module behaves differently in check mode, that limitation is explicitly documented.

Transfer to Real Teams

In a team context, Part A: Model Answers is connected to code review, branch rules, CI, role ownership, release notes, and operational approval. Production-like usage also documents ownership, maintenance window, monitoring, alerting, and rollback criteria.

Practical Relevance of Part A: Model Answers

This section is not just a definition. In the workshop, Part A: Model Answers is always validated through a concrete flow: inspect inventory, prove target hosts, check the playbook, simulate the change, run the change, evaluate a second run, and document cleanup. This shows whether Ansible really models desired state or merely executes a command successfully once.

Review Question Expected Answer
Which hosts are affected? Pattern, group, --limit, and inventory output are documented.
Which data sources apply? group_vars, host_vars, defaults, extra vars, and facts are known.
Which privileges are required? become is close to the task and justified.
How is success proven? Syntax check, check mode, diff, play recap, and second run are present.

Example Flow for Part A: Model Answers

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml

The flow is intentionally complete. In real teams, some steps are automated but not skipped. CI can run syntax checks and linting; the domain review of scope, privileges, secret flows, and rollout risk remains a human engineering task.

Review Criteria for Part A: Model Answers

  • Inventory and patterns are narrower than all unless a reason is documented.
  • Modules from ansible.builtin or reviewed collections are preferred.
  • Shell or command tasks include changed_when, failed_when, or a clear reason.
  • Variables are placed predictably and do not override each other surprisingly.
  • Secrets do not appear in plaintext, diffs, debug tasks, or CI logs.
  • The playbook can run repeatedly without unnecessary changes.
  • Cleanup, fix-forward, or controlled acceptance of the target state is documented.

Common Failure Modes for Part A: Model Answers

Failure Cause Diagnosis
wrong hosts targeted pattern or inventory misunderstood --list-hosts, ansible-inventory --host
unreachable SSH, user, Python, or network issue -vvvv, SSH test, inventory variables
unexpected change module not idempotent or wrong data source second run, diff, variable inspection
secret leak debug, diff, or log not scoped check no_log, Vault, CI artifacts
handler does not run no changed result or wrong handler name inspect task result and handler name

Operations Note for Part A: Model Answers

For production-like usage, the lab must become a runbook. The runbook states target systems, owners, prerequisites, stop criteria, expected duration, validation, monitoring, and cleanup. Without those details, a playbook is executable but not operationally mature.

1. threat modeling

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

2. least privilege

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

3. Vault IDs

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

4. secret flows

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

5. supply chain

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

6. no-log

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

7. execution environments

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

8. RBAC

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

9. incident response

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

10. security review

A good answer states purpose, typical data sources, risks, and validation. Validation uses ansible-inventory, ansible-playbook --syntax-check, --check --diff, and a second run.

02 / 08

3. Part B: Analysis Expectation

Deep Dive and Submission Example for Part B: Analysis Expectation

A complete treatment of Part B: Analysis Expectation contains both a technical artifact and a short domain explanation. The artifact can be an inventory, a playbook, a role, a template, a Vault file with dummy values, a CI configuration, or an evidence file. The explanation states why this path was chosen and which alternative was deliberately not used.

Submission Part Content Minimum Quality
target description what should be true after the run measurable and without hidden assumptions
scope evidence which hosts are affected output from --list-hosts or inventory graph
implementation which files were changed small reviewable YAML files
validation how it was checked syntax check, check mode, diff, real run, second run
risk decision what can go wrong privileges, secrets, external dependencies, and rollback considered

Minimal Artifacts for Part B: Analysis Expectation

text
submission/
  inventory/hosts.yml
  playbooks/site.yml
  evidence.md
  cleanup.md

For roles or collections, the structure expands:

text
submission/
  ansible.cfg
  collections/requirements.yml
  inventory/hosts.yml
  roles/<role>/defaults/main.yml
  roles/<role>/tasks/main.yml
  roles/<role>/handlers/main.yml
  playbooks/site.yml
  evidence.md

Grading Expectation for Part B: Analysis Expectation

A reviewable solution must be understandable to people who did not run it themselves. Screenshots or uncommented terminal output are not enough. Good evidence states context, command, relevant output, and assessment. If a module behaves differently in check mode, that limitation is explicitly documented.

Transfer to Real Teams

In a team context, Part B: Analysis Expectation is connected to code review, branch rules, CI, role ownership, release notes, and operational approval. Production-like usage also documents ownership, maintenance window, monitoring, alerting, and rollback criteria.

Practical Relevance of Part B: Analysis Expectation

This section is not just a definition. In the workshop, Part B: Analysis Expectation is always validated through a concrete flow: inspect inventory, prove target hosts, check the playbook, simulate the change, run the change, evaluate a second run, and document cleanup. This shows whether Ansible really models desired state or merely executes a command successfully once.

Review Question Expected Answer
Which hosts are affected? Pattern, group, --limit, and inventory output are documented.
Which data sources apply? group_vars, host_vars, defaults, extra vars, and facts are known.
Which privileges are required? become is close to the task and justified.
How is success proven? Syntax check, check mode, diff, play recap, and second run are present.

Example Flow for Part B: Analysis Expectation

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml

The flow is intentionally complete. In real teams, some steps are automated but not skipped. CI can run syntax checks and linting; the domain review of scope, privileges, secret flows, and rollout risk remains a human engineering task.

Review Criteria for Part B: Analysis Expectation

  • Inventory and patterns are narrower than all unless a reason is documented.
  • Modules from ansible.builtin or reviewed collections are preferred.
  • Shell or command tasks include changed_when, failed_when, or a clear reason.
  • Variables are placed predictably and do not override each other surprisingly.
  • Secrets do not appear in plaintext, diffs, debug tasks, or CI logs.
  • The playbook can run repeatedly without unnecessary changes.
  • Cleanup, fix-forward, or controlled acceptance of the target state is documented.

Common Failure Modes for Part B: Analysis Expectation

Failure Cause Diagnosis
wrong hosts targeted pattern or inventory misunderstood --list-hosts, ansible-inventory --host
unreachable SSH, user, Python, or network issue -vvvv, SSH test, inventory variables
unexpected change module not idempotent or wrong data source second run, diff, variable inspection
secret leak debug, diff, or log not scoped check no_log, Vault, CI artifacts
handler does not run no changed result or wrong handler name inspect task result and handler name

Operations Note for Part B: Analysis Expectation

For production-like usage, the lab must become a runbook. The runbook states target systems, owners, prerequisites, stop criteria, expected duration, validation, monitoring, and cleanup. Without those details, a playbook is executable but not operationally mature.

The inventory must show groups, hosts, variables, and connection parameters clearly. The playbook should use modules instead of unnecessary shell commands, justify become, and protect secrets.

03 / 08

4. Part C: Practical Solution

Deep Dive and Submission Example for Part C: Practical Solution

A complete treatment of Part C: Practical Solution contains both a technical artifact and a short domain explanation. The artifact can be an inventory, a playbook, a role, a template, a Vault file with dummy values, a CI configuration, or an evidence file. The explanation states why this path was chosen and which alternative was deliberately not used.

Submission Part Content Minimum Quality
target description what should be true after the run measurable and without hidden assumptions
scope evidence which hosts are affected output from --list-hosts or inventory graph
implementation which files were changed small reviewable YAML files
validation how it was checked syntax check, check mode, diff, real run, second run
risk decision what can go wrong privileges, secrets, external dependencies, and rollback considered

Minimal Artifacts for Part C: Practical Solution

text
submission/
  inventory/hosts.yml
  playbooks/site.yml
  evidence.md
  cleanup.md

For roles or collections, the structure expands:

text
submission/
  ansible.cfg
  collections/requirements.yml
  inventory/hosts.yml
  roles/<role>/defaults/main.yml
  roles/<role>/tasks/main.yml
  roles/<role>/handlers/main.yml
  playbooks/site.yml
  evidence.md

Grading Expectation for Part C: Practical Solution

A reviewable solution must be understandable to people who did not run it themselves. Screenshots or uncommented terminal output are not enough. Good evidence states context, command, relevant output, and assessment. If a module behaves differently in check mode, that limitation is explicitly documented.

Transfer to Real Teams

In a team context, Part C: Practical Solution is connected to code review, branch rules, CI, role ownership, release notes, and operational approval. Production-like usage also documents ownership, maintenance window, monitoring, alerting, and rollback criteria.

Practical Relevance of Part C: Practical Solution

This section is not just a definition. In the workshop, Part C: Practical Solution is always validated through a concrete flow: inspect inventory, prove target hosts, check the playbook, simulate the change, run the change, evaluate a second run, and document cleanup. This shows whether Ansible really models desired state or merely executes a command successfully once.

Review Question Expected Answer
Which hosts are affected? Pattern, group, --limit, and inventory output are documented.
Which data sources apply? group_vars, host_vars, defaults, extra vars, and facts are known.
Which privileges are required? become is close to the task and justified.
How is success proven? Syntax check, check mode, diff, play recap, and second run are present.

Example Flow for Part C: Practical Solution

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml

The flow is intentionally complete. In real teams, some steps are automated but not skipped. CI can run syntax checks and linting; the domain review of scope, privileges, secret flows, and rollout risk remains a human engineering task.

Review Criteria for Part C: Practical Solution

  • Inventory and patterns are narrower than all unless a reason is documented.
  • Modules from ansible.builtin or reviewed collections are preferred.
  • Shell or command tasks include changed_when, failed_when, or a clear reason.
  • Variables are placed predictably and do not override each other surprisingly.
  • Secrets do not appear in plaintext, diffs, debug tasks, or CI logs.
  • The playbook can run repeatedly without unnecessary changes.
  • Cleanup, fix-forward, or controlled acceptance of the target state is documented.

Common Failure Modes for Part C: Practical Solution

Failure Cause Diagnosis
wrong hosts targeted pattern or inventory misunderstood --list-hosts, ansible-inventory --host
unreachable SSH, user, Python, or network issue -vvvv, SSH test, inventory variables
unexpected change module not idempotent or wrong data source second run, diff, variable inspection
secret leak debug, diff, or log not scoped check no_log, Vault, CI artifacts
handler does not run no changed result or wrong handler name inspect task result and handler name

Operations Note for Part C: Practical Solution

For production-like usage, the lab must become a runbook. The runbook states target systems, owners, prerequisites, stop criteria, expected duration, validation, monitoring, and cleanup. Without those details, a playbook is executable but not operationally mature.

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
04 / 08

5. Part D: Diagnosis and Operations Note

Deep Dive and Submission Example for Part D: Diagnosis and Operations Note

A complete treatment of Part D: Diagnosis and Operations Note contains both a technical artifact and a short domain explanation. The artifact can be an inventory, a playbook, a role, a template, a Vault file with dummy values, a CI configuration, or an evidence file. The explanation states why this path was chosen and which alternative was deliberately not used.

Submission Part Content Minimum Quality
target description what should be true after the run measurable and without hidden assumptions
scope evidence which hosts are affected output from --list-hosts or inventory graph
implementation which files were changed small reviewable YAML files
validation how it was checked syntax check, check mode, diff, real run, second run
risk decision what can go wrong privileges, secrets, external dependencies, and rollback considered

Minimal Artifacts for Part D: Diagnosis and Operations Note

text
submission/
  inventory/hosts.yml
  playbooks/site.yml
  evidence.md
  cleanup.md

For roles or collections, the structure expands:

text
submission/
  ansible.cfg
  collections/requirements.yml
  inventory/hosts.yml
  roles/<role>/defaults/main.yml
  roles/<role>/tasks/main.yml
  roles/<role>/handlers/main.yml
  playbooks/site.yml
  evidence.md

Grading Expectation for Part D: Diagnosis and Operations Note

A reviewable solution must be understandable to people who did not run it themselves. Screenshots or uncommented terminal output are not enough. Good evidence states context, command, relevant output, and assessment. If a module behaves differently in check mode, that limitation is explicitly documented.

Transfer to Real Teams

In a team context, Part D: Diagnosis and Operations Note is connected to code review, branch rules, CI, role ownership, release notes, and operational approval. Production-like usage also documents ownership, maintenance window, monitoring, alerting, and rollback criteria.

Practical Relevance of Part D: Diagnosis and Operations Note

This section is not just a definition. In the workshop, Part D: Diagnosis and Operations Note is always validated through a concrete flow: inspect inventory, prove target hosts, check the playbook, simulate the change, run the change, evaluate a second run, and document cleanup. This shows whether Ansible really models desired state or merely executes a command successfully once.

Review Question Expected Answer
Which hosts are affected? Pattern, group, --limit, and inventory output are documented.
Which data sources apply? group_vars, host_vars, defaults, extra vars, and facts are known.
Which privileges are required? become is close to the task and justified.
How is success proven? Syntax check, check mode, diff, play recap, and second run are present.

Example Flow for Part D: Diagnosis and Operations Note

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml

The flow is intentionally complete. In real teams, some steps are automated but not skipped. CI can run syntax checks and linting; the domain review of scope, privileges, secret flows, and rollout risk remains a human engineering task.

Review Criteria for Part D: Diagnosis and Operations Note

  • Inventory and patterns are narrower than all unless a reason is documented.
  • Modules from ansible.builtin or reviewed collections are preferred.
  • Shell or command tasks include changed_when, failed_when, or a clear reason.
  • Variables are placed predictably and do not override each other surprisingly.
  • Secrets do not appear in plaintext, diffs, debug tasks, or CI logs.
  • The playbook can run repeatedly without unnecessary changes.
  • Cleanup, fix-forward, or controlled acceptance of the target state is documented.

Common Failure Modes for Part D: Diagnosis and Operations Note

Failure Cause Diagnosis
wrong hosts targeted pattern or inventory misunderstood --list-hosts, ansible-inventory --host
unreachable SSH, user, Python, or network issue -vvvv, SSH test, inventory variables
unexpected change module not idempotent or wrong data source second run, diff, variable inspection
secret leak debug, diff, or log not scoped check no_log, Vault, CI artifacts
handler does not run no changed result or wrong handler name inspect task result and handler name

Operations Note for Part D: Diagnosis and Operations Note

For production-like usage, the lab must become a runbook. The runbook states target systems, owners, prerequisites, stop criteria, expected duration, validation, monitoring, and cleanup. Without those details, a playbook is executable but not operationally mature.

A good diagnosis separates unreachable from failed and checks inventory, connection, Python, privileges, variables, modules, and collections in that order.

05 / 08

6. Expected Submission Structure

Deep Dive and Submission Example for Expected Submission Structure

A complete treatment of Expected Submission Structure contains both a technical artifact and a short domain explanation. The artifact can be an inventory, a playbook, a role, a template, a Vault file with dummy values, a CI configuration, or an evidence file. The explanation states why this path was chosen and which alternative was deliberately not used.

Submission Part Content Minimum Quality
target description what should be true after the run measurable and without hidden assumptions
scope evidence which hosts are affected output from --list-hosts or inventory graph
implementation which files were changed small reviewable YAML files
validation how it was checked syntax check, check mode, diff, real run, second run
risk decision what can go wrong privileges, secrets, external dependencies, and rollback considered

Minimal Artifacts for Expected Submission Structure

text
submission/
  inventory/hosts.yml
  playbooks/site.yml
  evidence.md
  cleanup.md

For roles or collections, the structure expands:

text
submission/
  ansible.cfg
  collections/requirements.yml
  inventory/hosts.yml
  roles/<role>/defaults/main.yml
  roles/<role>/tasks/main.yml
  roles/<role>/handlers/main.yml
  playbooks/site.yml
  evidence.md

Grading Expectation for Expected Submission Structure

A reviewable solution must be understandable to people who did not run it themselves. Screenshots or uncommented terminal output are not enough. Good evidence states context, command, relevant output, and assessment. If a module behaves differently in check mode, that limitation is explicitly documented.

Transfer to Real Teams

In a team context, Expected Submission Structure is connected to code review, branch rules, CI, role ownership, release notes, and operational approval. Production-like usage also documents ownership, maintenance window, monitoring, alerting, and rollback criteria.

Practical Relevance of Expected Submission Structure

This section is not just a definition. In the workshop, Expected Submission Structure is always validated through a concrete flow: inspect inventory, prove target hosts, check the playbook, simulate the change, run the change, evaluate a second run, and document cleanup. This shows whether Ansible really models desired state or merely executes a command successfully once.

Review Question Expected Answer
Which hosts are affected? Pattern, group, --limit, and inventory output are documented.
Which data sources apply? group_vars, host_vars, defaults, extra vars, and facts are known.
Which privileges are required? become is close to the task and justified.
How is success proven? Syntax check, check mode, diff, play recap, and second run are present.

Example Flow for Expected Submission Structure

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml

The flow is intentionally complete. In real teams, some steps are automated but not skipped. CI can run syntax checks and linting; the domain review of scope, privileges, secret flows, and rollout risk remains a human engineering task.

Review Criteria for Expected Submission Structure

  • Inventory and patterns are narrower than all unless a reason is documented.
  • Modules from ansible.builtin or reviewed collections are preferred.
  • Shell or command tasks include changed_when, failed_when, or a clear reason.
  • Variables are placed predictably and do not override each other surprisingly.
  • Secrets do not appear in plaintext, diffs, debug tasks, or CI logs.
  • The playbook can run repeatedly without unnecessary changes.
  • Cleanup, fix-forward, or controlled acceptance of the target state is documented.

Common Failure Modes for Expected Submission Structure

Failure Cause Diagnosis
wrong hosts targeted pattern or inventory misunderstood --list-hosts, ansible-inventory --host
unreachable SSH, user, Python, or network issue -vvvv, SSH test, inventory variables
unexpected change module not idempotent or wrong data source second run, diff, variable inspection
secret leak debug, diff, or log not scoped check no_log, Vault, CI artifacts
handler does not run no changed result or wrong handler name inspect task result and handler name

Operations Note for Expected Submission Structure

For production-like usage, the lab must become a runbook. The runbook states target systems, owners, prerequisites, stop criteria, expected duration, validation, monitoring, and cleanup. Without those details, a playbook is executable but not operationally mature.

answers.md, inventory, playbook, evidence, and cleanup file must be consistent.

06 / 08

7. Cleanup

Deep Dive and Submission Example for Cleanup

A complete treatment of Cleanup contains both a technical artifact and a short domain explanation. The artifact can be an inventory, a playbook, a role, a template, a Vault file with dummy values, a CI configuration, or an evidence file. The explanation states why this path was chosen and which alternative was deliberately not used.

Submission Part Content Minimum Quality
target description what should be true after the run measurable and without hidden assumptions
scope evidence which hosts are affected output from --list-hosts or inventory graph
implementation which files were changed small reviewable YAML files
validation how it was checked syntax check, check mode, diff, real run, second run
risk decision what can go wrong privileges, secrets, external dependencies, and rollback considered

Minimal Artifacts for Cleanup

text
submission/
  inventory/hosts.yml
  playbooks/site.yml
  evidence.md
  cleanup.md

For roles or collections, the structure expands:

text
submission/
  ansible.cfg
  collections/requirements.yml
  inventory/hosts.yml
  roles/<role>/defaults/main.yml
  roles/<role>/tasks/main.yml
  roles/<role>/handlers/main.yml
  playbooks/site.yml
  evidence.md

Grading Expectation for Cleanup

A reviewable solution must be understandable to people who did not run it themselves. Screenshots or uncommented terminal output are not enough. Good evidence states context, command, relevant output, and assessment. If a module behaves differently in check mode, that limitation is explicitly documented.

Transfer to Real Teams

In a team context, Cleanup is connected to code review, branch rules, CI, role ownership, release notes, and operational approval. Production-like usage also documents ownership, maintenance window, monitoring, alerting, and rollback criteria.

Practical Relevance of Cleanup

This section is not just a definition. In the workshop, Cleanup is always validated through a concrete flow: inspect inventory, prove target hosts, check the playbook, simulate the change, run the change, evaluate a second run, and document cleanup. This shows whether Ansible really models desired state or merely executes a command successfully once.

Review Question Expected Answer
Which hosts are affected? Pattern, group, --limit, and inventory output are documented.
Which data sources apply? group_vars, host_vars, defaults, extra vars, and facts are known.
Which privileges are required? become is close to the task and justified.
How is success proven? Syntax check, check mode, diff, play recap, and second run are present.

Example Flow for Cleanup

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml

The flow is intentionally complete. In real teams, some steps are automated but not skipped. CI can run syntax checks and linting; the domain review of scope, privileges, secret flows, and rollout risk remains a human engineering task.

Review Criteria for Cleanup

  • Inventory and patterns are narrower than all unless a reason is documented.
  • Modules from ansible.builtin or reviewed collections are preferred.
  • Shell or command tasks include changed_when, failed_when, or a clear reason.
  • Variables are placed predictably and do not override each other surprisingly.
  • Secrets do not appear in plaintext, diffs, debug tasks, or CI logs.
  • The playbook can run repeatedly without unnecessary changes.
  • Cleanup, fix-forward, or controlled acceptance of the target state is documented.

Common Failure Modes for Cleanup

Failure Cause Diagnosis
wrong hosts targeted pattern or inventory misunderstood --list-hosts, ansible-inventory --host
unreachable SSH, user, Python, or network issue -vvvv, SSH test, inventory variables
unexpected change module not idempotent or wrong data source second run, diff, variable inspection
secret leak debug, diff, or log not scoped check no_log, Vault, CI artifacts
handler does not run no changed result or wrong handler name inspect task result and handler name

Operations Note for Cleanup

For production-like usage, the lab must become a runbook. The runbook states target systems, owners, prerequisites, stop criteria, expected duration, validation, monitoring, and cleanup. Without those details, a playbook is executable but not operationally mature.

Lab artifacts under /tmp, dummy secrets, and temporary inventories are removed or clearly documented.

07 / 08

8. Scoring Notes

Deep Dive and Submission Example for Scoring Notes

A complete treatment of Scoring Notes contains both a technical artifact and a short domain explanation. The artifact can be an inventory, a playbook, a role, a template, a Vault file with dummy values, a CI configuration, or an evidence file. The explanation states why this path was chosen and which alternative was deliberately not used.

Submission Part Content Minimum Quality
target description what should be true after the run measurable and without hidden assumptions
scope evidence which hosts are affected output from --list-hosts or inventory graph
implementation which files were changed small reviewable YAML files
validation how it was checked syntax check, check mode, diff, real run, second run
risk decision what can go wrong privileges, secrets, external dependencies, and rollback considered

Minimal Artifacts for Scoring Notes

text
submission/
  inventory/hosts.yml
  playbooks/site.yml
  evidence.md
  cleanup.md

For roles or collections, the structure expands:

text
submission/
  ansible.cfg
  collections/requirements.yml
  inventory/hosts.yml
  roles/<role>/defaults/main.yml
  roles/<role>/tasks/main.yml
  roles/<role>/handlers/main.yml
  playbooks/site.yml
  evidence.md

Grading Expectation for Scoring Notes

A reviewable solution must be understandable to people who did not run it themselves. Screenshots or uncommented terminal output are not enough. Good evidence states context, command, relevant output, and assessment. If a module behaves differently in check mode, that limitation is explicitly documented.

Transfer to Real Teams

In a team context, Scoring Notes is connected to code review, branch rules, CI, role ownership, release notes, and operational approval. Production-like usage also documents ownership, maintenance window, monitoring, alerting, and rollback criteria.

Practical Relevance of Scoring Notes

This section is not just a definition. In the workshop, Scoring Notes is always validated through a concrete flow: inspect inventory, prove target hosts, check the playbook, simulate the change, run the change, evaluate a second run, and document cleanup. This shows whether Ansible really models desired state or merely executes a command successfully once.

Review Question Expected Answer
Which hosts are affected? Pattern, group, --limit, and inventory output are documented.
Which data sources apply? group_vars, host_vars, defaults, extra vars, and facts are known.
Which privileges are required? become is close to the task and justified.
How is success proven? Syntax check, check mode, diff, play recap, and second run are present.

Example Flow for Scoring Notes

bash
ansible-inventory -i inventory/hosts.yml --graph
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --list-hosts
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --syntax-check
ansible-playbook -i inventory/hosts.yml playbooks/site.yml --check --diff
ansible-playbook -i inventory/hosts.yml playbooks/site.yml
ansible-playbook -i inventory/hosts.yml playbooks/site.yml

The flow is intentionally complete. In real teams, some steps are automated but not skipped. CI can run syntax checks and linting; the domain review of scope, privileges, secret flows, and rollout risk remains a human engineering task.

Review Criteria for Scoring Notes

  • Inventory and patterns are narrower than all unless a reason is documented.
  • Modules from ansible.builtin or reviewed collections are preferred.
  • Shell or command tasks include changed_when, failed_when, or a clear reason.
  • Variables are placed predictably and do not override each other surprisingly.
  • Secrets do not appear in plaintext, diffs, debug tasks, or CI logs.
  • The playbook can run repeatedly without unnecessary changes.
  • Cleanup, fix-forward, or controlled acceptance of the target state is documented.

Common Failure Modes for Scoring Notes

Failure Cause Diagnosis
wrong hosts targeted pattern or inventory misunderstood --list-hosts, ansible-inventory --host
unreachable SSH, user, Python, or network issue -vvvv, SSH test, inventory variables
unexpected change module not idempotent or wrong data source second run, diff, variable inspection
secret leak debug, diff, or log not scoped check no_log, Vault, CI artifacts
handler does not run no changed result or wrong handler name inspect task result and handler name

Operations Note for Scoring Notes

For production-like usage, the lab must become a runbook. The runbook states target systems, owners, prerequisites, stop criteria, expected duration, validation, monitoring, and cleanup. Without those details, a playbook is executable but not operationally mature.

Accept different implementations if they use realistic Ansible modules, are safely scoped, and provide reproducible evidence.

08 / 08

ANS · Orthevs Academy

31 Module als durchgängiger Lernpfad.

Die Reihenfolge bleibt unverändert: von der Laborgrundstruktur über fachliche Grundlagen und Betriebsmodelle bis zum abschließenden Troubleshooting. Die technischen Verzeichnisnamen werden bewusst beibehalten.

Orthevs – Engineering als Grundlage für das, was als Nächstes kommt.

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