Length: 2 Days

Certified SDIP-27 Level A TEMPEST Protection Engineer (CSTA-E) Certification Program by Tonex

High-assurance processing environments demand a disciplined approach to electromagnetic information leakage, equipment selection, and protected installation design. This certification concentrates on the engineering decisions associated with SDIP-27 Level A requirements, while recognizing that authoritative limits, test methods, and approvals reside with competent national and North Atlantic Treaty Organization (NATO) authorities. Participants learn to organize protection requirements across computing equipment, peripheral interfaces, enclosure boundaries, cabling, power distribution, and facility constraints. Emphasis is placed on documented traceability between approved equipment configurations and actual installation conditions. The curriculum examines engineering change review, supplier qualification evidence, interface compatibility, and maintainable protection arrangements. Professionals learn how to explain the implications of a modified cable, replacement component, or altered enclosure in terms of continued assurance rather than assuming previous certification automatically carries over.

Cybersecurity controls can safeguard stored and transmitted data while compromising emanations remain a separate confidentiality exposure. This program integrates cybersecurity architecture reviews with documented emission security controls, protected configuration baselines, and independent verification obligations.

The practical training approach includes exercises, real-world case studies, and examples of processes and documentation used in Level A protected computing and installation engineering projects. Participants review technical decisions, traceability records, and evidence packages relevant to accountable professional practice.

Learning Objectives

  • Translate authorized Level A protection needs into an engineering requirements baseline.
  • Evaluate interfaces, enclosures, cables, and supporting facility assumptions.
  • Review exact-item certification evidence and controlled modifications.
  • Plan engineering assurance records for protected configurations.
  • Coordinate accepted evaluation and procurement authority responsibilities.
  • Integrate cybersecurity design requirements with strict emission protection governance.

Audience

  • High-Assurance Systems Engineers
  • Protected Facilities Design Engineers
  • Security Engineering Authorities
  • Defense Equipment Integration Leads
  • Configuration Assurance Professionals
  • Cybersecurity Professionals

Program Modules

Module 1: Level A Engineering Requirements and Governance

  • Define project scope for high-assurance protected processing.
  • Identify authorized Level A applicability decisions.
  • Translate security objectives into traceable engineering requirements.
  • Document approval roles and controlled source references.
  • Identify exclusions and dependencies for interfacing equipment.
  • Review procurement constraints on approved product choices.
  • Set evidence requirements before architecture commitment.

Module 2: Protected Equipment Boundaries and Interface Design

  • Identify protected processing and peripheral equipment boundaries.
  • Analyze potential cable and connector integration concerns.
  • Specify approved interface arrangements and engineering drawings.
  • Review equipment configuration control for certified variants.
  • Assess enclosure openings and approved accessory changes.
  • Separate electromagnetic compatibility claims from security assurance.
  • Escalate boundary ambiguities to the approving authority.

Module 3: Power Distribution and Cabling Assurance Planning

  • Review protective design considerations for power interfaces.
  • Identify routing segregation obligations in approved layouts.
  • Plan bonding documentation for controlled installation pathways.
  • Check procurement records for specified filter components.
  • Review utility connection changes against original assumptions.
  • Document acceptance criteria for installation workmanship.
  • Maintain traceability between drawings and deployed configurations.

Module 4: Configuration Integrity and Vendor Qualification Evidence

  • Confirm that certificates identify the procured product variant.
  • Review supplier quality systems and authorized evaluation status.
  • Define field modification restrictions and replacement controls.
  • Examine change history before accepting maintenance actions.
  • Specify preservation of labels serial records and baselines.
  • Resolve documentation discrepancies through formal authority channels.
  • Prepare objective evidence for final configuration acceptance.

Module 5: High Assurance Verification and Exception Handling

  • Create verification matrices linked to approved requirements.
  • Identify suitable independent inspection and document reviews.
  • Plan authorized evaluations through accredited responsible providers.
  • Track unresolved deviations and corrective action ownership.
  • Verify protection assumptions after component replacement requests.
  • Distinguish conditional acceptance from formal compliance approval.
  • Maintain clear records for follow-on technical review.

Module 6: Lifecycle Governance for Protected Mission Equipment

  • Plan maintenance procedures preserving certified configurations.
  • Review spare-part controls and supply continuity requirements.
  • Evaluate cybersecurity updates for unintended boundary changes.
  • Coordinate facility modifications and equipment reassessment triggers.
  • Build acceptance documentation for operational transition.
  • Develop accountability for periodic certificate status review.
  • Present residual risks and restrictions to security leadership.

Exam Domains

  • Level A Applicability and Authorized Criteria
  • Protected Processing Interfaces and Physical Boundaries
  • Power and Cable Integration Assurance
  • Qualified Supplier Configuration Evidence
  • Independent Verification and Exception Resolution
  • Protected Asset Lifecycle Risk Control

Course Delivery

The program is delivered through expert-led lectures, interactive discussions, structured workshops, and project-based learning focused on Level A protected computing and installation engineering. Participants use guided exercises, public-policy examples, real-world case studies, and representative technical documentation to practice informed professional decisions. Restricted evaluation techniques remain the responsibility of authorized organizations.

Assessment and Certification

Participants are assessed through quizzes, assignments, and a capstone project developing a Level A interface and qualification evidence matrix. Candidates who meet the program requirements and examination passing criteria receive a Tonex-issued certificate for Certified SDIP-27 Level A TEMPEST Protection Engineer (CSTA-E). This educational credential does not constitute NATO TEMPEST equipment certification, authorized evaluation-facility status, or government security accreditation.

Question Types

  • Multiple Choice Questions (MCQs)
  • Scenario-based Questions

Passing Criteria

To pass the Certified SDIP-27 Level A TEMPEST Protection Engineer (CSTA-E) Certification Training exam, candidates must achieve a score of 70% or higher.

Lead high-assurance Level A engineering reviews with traceable interface and supplier evidence. Enroll in the Certified SDIP-27 Level A TEMPEST Protection Engineer (CSTA-E) Certification Program by Tonex to strengthen your specialized professional expertise.

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