One of many atomic scenarios
Stop CloudTrail logging
The catalog describes stopping a lab trail, then restoring logging after 30 seconds. It is a focused exercise for investigating audit-logging tampering.
AWS & Kubernetes / Detection validation
For cloud security and detection teams: rehearse adversary techniques in disposable labs in your test account, inspect the alerts your SIEM sends back, and improve your detections through retesting.
Start with a conversation. No cloud connection needed for the demo.
Inside an emulation
Can your team distinguish routine Windows administration from a burst of credential-hunting requests?
Retrieve EC2 Windows Password Data / AWS atomic emulation
Attack behavior
The emulation calls ec2:GetPasswordData against generated fake instance IDs. It reproduces credential-hunting behavior without provisioning Windows instances or retrieving real administrator passwords.
The expected API response is InvalidInstanceID.NotFound. The detection question is whether repeated failed requests from one principal are recognized as suspicious activity.
Scenario configuration
API ec2:GetPasswordData Requests 30 Targets Generated fake instance IDs Resources No target infrastructure required Response Scenario-specific IR playbook Content Sigma detections and KQL detections
Configuration of the shipped emulation. Detection results depend on the telemetry, rules and alert integration in the environment being tested.
Execute the atomic technique through MayaTrail and inspect the API responses in the execution output.
FOCUSED ATTACK BEHAVIORYour SIEM runs the detection rules and forwards fired alerts to MayaTrail. We match those alerts to the emulation, highlight techniques with no matching alert, and suggest detection content for you to review and deploy in your SIEM.
ALERT EVIDENCE + DETECTION GAPSUse the playbook to inspect the caller, request rate, error codes and target instances. Establish whether any target was real before treating credentials as exposed.
SCENARIO-SPECIFIC GUIDANCEReview telemetry and alert delivery, adjust the detection for your environment, then repeat the exercise and compare the supporting alert evidence.
REPEATABLE VALIDATIONDetection gaps
For each exercised technique, inspect the matching alerts, any detection gaps and anything left unmeasured.
Inspect the matching alert and whether it identifies an exact rule or supports detection of the technique. Keep the rule, and retest it later.
The technique ran, but MayaTrail received no matching alert. Investigate the detection rule, telemetry and alert delivery to establish the cause.
Missing integration or insufficient evidence leaves the outcome unknown. Untested rules are kept separate from failed detections.
Apply changes in your detection stack, then repeat the exercise. Compare alert evidence across equivalent exercises to validate improvements and investigate possible regressions.
Two examples from a growing catalog: a focused logging-control exercise, and a longer campaign across multiple cloud services.
One of many atomic scenarios
The catalog describes stopping a lab trail, then restoring logging after 30 seconds. It is a focused exercise for investigating audit-logging tampering.
One of many campaigns
The catalog combines malicious-container execution, persistence, multi-service mining behavior and defense evasion into a longer campaign. Documented and simulated phases are identified in the product.
Provision a disposable vulnerable stack in a dedicated test account.
Replay a real adversary technique, step by step.
Forward detection alerts from your SIEM. Inspect matching evidence and separate missing alerts from unvalidated results.
Use supported detection rules, preventive policies and response playbooks to address findings. Retest, then verify lab cleanup.
Rehearse attack chains based on documented incidents and security research. Research-based scenarios such as ECScape sit alongside incident-based campaigns, with their origin and scope identified in the product.
Test a specific behavior across cloud and Kubernetes. Choose an atomic technique, inspect its ATT&CK mapping and supporting content, and repeat the exercise when your controls change.
Review shipped Sigma and KQL content, author your own rules, and test them against synthetic events. Export supported rules to Splunk SPL or OpenSearch for use in your detection stack.
Match forwarded alerts to a shipped rule or an exercised technique. Inspect the evidence and match confidence; an alert that only shares the observation window is never counted as a pass.
Compare exercises to see detections that started or stopped firing, with supporting alert evidence. Keep unmeasured rules separate from observed detection gaps.
Explore privilege-escalation paths through existing cloud identities and permissions. Link a discovered path to the emulation that rehearses it.
Review SCPs, RCPs and other preventive policies relevant to your findings, from restricting encryption-key deletion to blocking unapproved regions. Assess scope before enforcing a control.
Give analysts investigation and response guidance across identity, storage, databases, Kubernetes and more. Review and adapt the documented steps for your environment.
Temporary access through a scoped cross-account role, pre-run cost estimates, scheduled cleanup and lifecycle audit entries. Review permissions before connecting and verify that cleanup completes.
From the engineer tuning a rule to the security lead deciding what to improve next.
Validate and improve
Detection and cloud security engineers
Rehearse supported techniques, inspect alert evidence and retest detection changes. Pair findings with relevant preventive controls.
SOC analysts and responders
Use exercises and response playbooks to practice investigation. Detection evidence is one input; human response readiness needs its own assessment.
Decide with evidence
Security leads, CTOs and CISOs
See what was tested, the evidence observed, remaining uncertainty and what changed after remediation.
A complement to your security program
Repeatable lab exercises complement posture reviews and penetration testing. Results apply to the exercised environment and techniques, not every path through your production estate.
Start with one useful exercise
Tell us what you want to validate. We will walk through the platform and agree a practical evaluation with your team.
Share your cloud platform, detection stack and the problem you want to investigate.
Explore the emulations, detection content and evidence workflow. You do not need to connect AWS for this conversation.
Discuss exploratory access, lab availability and one guided exercise. Validate your own detections when your test account and SIEM integration are ready.
Prefer to write directly? admin@mayatrail.tech
Include your cloud, SIEM and evaluation goal.
Services
Cloud assessments, red teaming, response exercises and hands-on training are separately scoped engagements. Platform onboarding and ongoing product support are included in the annual subscription.
Pricing
Every engagement and plan depends on your cloud accounts and your detection stack, so the quickest way to a number is to ask. Write to admin@mayatrail.tech and tell us what you want to run.
Start with a demo and decide whether a scoped assessment or an annual platform subscription fits your needs. We agree the evaluation scope, access requirements and deliverables with you first.
An assessment is optional. Any follow-on subscription is scoped and quoted separately.
Logging and detection changes can affect rules that worked before. Repeat and schedule exercises with your annual plan, then compare received alert evidence to investigate possible regressions.
A security team that wants repeatable exercises, with onboarding and product support.
Several accounts, several teams, and someone who has to sign off on the evidence.
We agree the subscription scope before you commit. Cloud infrastructure costs are separate from the platform subscription.
Customer validation uses a disposable lab in your test account, with telemetry routed to your detection stack. A demonstration lab explains the workflow; it does not establish coverage in your environment. Agree the account, permissions and logging configuration before connecting.
Tell us which accounts and teams need access. Your quote will state the included scope, support and terms for adding accounts.
Agree an exercise you can repeat after a detection change. Platform usage terms are set in your plan, and each exercise can incur cloud infrastructure costs.
Infrastructure in your account appears on your cloud bill. Costs depend on the scenario, region, services and duration. Review the estimate before deployment, use scheduled cleanup and verify resources were removed.
Access is a scoped cross-account role, assumed at run time with short-lived credentials. You can revoke the role trust to stop new sessions. Review active-session revocation separately with your AWS administrator.
Including the ones that are awkward for us.
The validation workflow receives detection alerts forwarded by your SIEM, rather than bulk raw logs. Alerts can still contain sensitive fields. Before connecting, agree which fields are sent, who can access them, retention and deletion requirements, and the permissions used for the exercise.
No SIEM is needed for a conversation or guided product walkthrough. To validate your own detections, you need the relevant telemetry in your SIEM and a verified alert-forwarding integration. An emulation without that integration can demonstrate execution, but cannot prove that your detections fired.
There is no public free hosted tier. Start with a guided demo, then discuss exploratory access and lab availability. Customer-connected exercises require agreed cloud access and SIEM setup; browsing and the initial demo do not.
We started with AWS and Kubernetes, and went deep on both. For AWS that includes incident-based campaigns, research-based scenarios and single-technique emulations. For Kubernetes it is emulations of cluster-level attacks. Azure and GCP are next on the roadmap. Emulations package the attack behavior and supporting content, with infrastructure where the scenario requires it. Scope and prerequisites are stated in the product.
Emulations act on disposable resources provisioned for the exercise, and some scenarios intentionally change or destroy those resources. Use a dedicated test account and review the scenario permissions, boundaries and costs first. Cleanup is scheduled; confirm that it completes and investigate any remaining resources.
Then you have evidence for the techniques and environment assessed. Decide whether recurring exercises, detection changes or response practice justify a subscription. A successful exercise does not establish complete coverage.
Each campaign declares its techniques and scope. Lab evidence cannot establish coverage for untested techniques, every production attack path or the quality of a human investigation. Without a working alert integration, detection outcomes remain unvalidated. Review unsupported and unmeasured items alongside the findings.
Tell us what you run for cloud security and detection. We will discuss a useful first exercise, the evidence it could produce and what it would leave untested.