How Cyber Helmets’ Training Development Process (TDP) builds capability in modern cybersecurity teams.

Modern cybersecurity teams face evolving threats, expanding tech stacks, and increasing pressure to demonstrate real operational readiness. In this environment, traditional “one-off” training no longer delivers meaningful or lasting capability.

 

At Cyber Helmets, the Training Development Process (TDP) is the framework we use to build, measure, and sustain real cybersecurity capability in modern teams. It’s a structured lifecycle ensures people don’t just attend training, they learn, apply, and evolve in alignment with real-world challenges and your organization’s mission.

 

Why traditional training falls short

Most cybersecurity training stops at knowledge delivery. Teams complete a course, pass (or don’t pass) an exam, and return to their day-to-day tasks with no structured follow-up, no measurement of impact, and no alignment with the environments they actually operate in.

 

This creates gaps that directly affect readiness:

Skills fade quickly without reinforcement

Training doesn’t match real infrastructures

Team capability is rarely measured

Business goals aren’t connected to learning outcomes

Certifications don’t reflect real operational performance

Through the TDP, we replace disconnected, transactional training with a continuous, measurable, and operationally aligned lifecycle.

 

What is the Training Development Process (TDP)?

The TDP is a structured, end-to-end lifecycle, a roadmap that transforms training into performance. It moves beyond standalone courses and introduces a repeatable model that aligns skill development with your mission, technology, and operational needs.

 

Tailored. Measurable. Effective.

Our lifecycle approach embeds learning into your organization’s performance model, from identifying skill gaps to evaluating impact on real operations. Training becomes systematic, business-impact driven, and directly tied to capability growth.

 

 

 

The Five Stages of the TDP

Based on the Training Development Lifecycle (TDLC) model in our framework, it operates across five core stages:

 

1. Analysis

We assess your team’s current capability, tech stack, mission requirements, and role needs. This ensures we define the right objectives and avoid generic, misaligned training.

2. Design

We translate insights into a targeted plan built around realistic scenarios, measurable outcomes, and business-aligned goals.

3. Development

We build custom labs, hands-on exercises, and instructor-led material grounded in your real infrastructures and operational realities.

4. Implementation & Delivery

Training is delivered through guided, scenario-based, practical learning, ensuring teams can apply what they learn under real conditions.

5. Evaluation & Continuous Improvement

We measure capability growth, retention, operational performance, and ROI, feeding insights back into the next cycle to sustain long-term readiness.

 

Evaluation & Capability Assurance

A five-pillar framework designed to deliver a holistic, actionable evaluation of your organization’s cybersecurity readiness. Our evaluation model covers:

 

People – role alignment, skills, readiness
Business Enablement – measurable impact, strategic alignment
Infrastructure – tech stack compatibility, integrated environments
Compliance – risk and regulatory requirements
Strategy – long-term workforce development and planning

 

This ensures training isn’t just delivered, it’s validated, measured, and improved continuously and gives organizations a holistic view of their cybersecurity capability.

 

The operational value the Training Development Process delivers

A structured TDP delivers outcomes that standalone training cannot:

 

✓ Training aligns directly with business goals

✓ Content matches real infrastructures

✓ Teams build practical, durable skills under guidance

✓ Organizations gain measurable insights and ROI

✓ Capability grows continuously, not just during a course

✓ Teams are consistently prepared for real-world challenges

 

This is how modern security teams stay sharp, confident, and mission-ready.

 

Bringing the TDP to your team

Skill gaps, evolving threats, and complex infrastructures demand more than traditional training. A structured TDP is now a requirement for any organization that needs consistent, validated, and defensible cybersecurity capability.

 

See how the Cyber Helmets’ TDP can anchor your team’s long-term readiness.

Book a meeting with us to discuss your training and hiring needs.

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Syllabus:

Intro to GCP

  • GCP Hierarchy
  • Google Workspace
  • gcloud config
  • Basic Hacking Techniques

Exploitation of GCP Services

  • IAM
  • KMS
  • Secrets 
  • Storage
  • Compute Instances & VPC
  • Cloud Functions
  • CloudSQL
  • Pub/Sub
  • App Engine
  • Google APIs
  • Cloud Shell

Methodologies

  • White box

Security Services

  • GCP Logging & Monitoring

Syllabus:

Intro to AWS

  • AWS Organization
  • AWS Principals
  • Basic Hacking Techniques

Exploitation of AWS Services

  • IAM
  • STS
  • KMS
  • Secrets Manager
  • S3
  • EC2 & VPC
  • Lambda
  • RDS
  • SQS
  • SNS

Methologies

  • White box

Common Detection Mechanisms

  • CloudTrail

Syllabus:

Azure Basics

  • Azure Organization
  • Entra ID
  • Azure Tokens & APIs
  • Basic Enumeration Tools

 

Exploitation of Azure Services

  • Entra ID IAM
  • Azure IAM
  • Azure Applications
  • Azure Key Vault
  • Azure Virtual Machine & Networking
  • Storage Accounts
  • Azure File Share
  • Azure Table Storage
  • Azure SQL Database
  • Azure MySQL & PostgreSQL
  • Azure CosmosDB
  • Azure App Service
  • Basic Azure Research Technique
  • Azure Function Apps
  • Static Web Apps
  • Azure Container Registry
  • Azure Container
  • Instances, Apps & Jobs
  • Azure Queue
  • Azure Service Bus
  • Azure Automation Account
  • Azure Logic Apps
  • Azure Cloud Shell
  • Azure Virtual Desktop

 

Methologies

  • White box
  • Black box
  • Pivoting between Entra ID & AD

 

Common Detection Mechanisms

  • Azure & Entra ID Logging & Monitoring
  • Microsoft Sentinel
  • Microsoft Defender for Cloud & Microsoft Defender EASM

Fundamentals and Setup

  1. Overview of Android’s architecture and ecosystem dynamics.
  2. Exploration of security features native to Android using Java, Kotlin, C++, and Rust.
  3. Mobile Application Threat Model
    a) Differences between mobile and web application threat models.
    b) Applying threat modeling techniques specifically to mobile applications.
    c) Case studies highlighting potential threats and vulnerabilities.
    d) How do we secure and test cross platform apps (e.g. ReactNative, Xamarin, etc).
  4. Introduction to industry mobile security standards
    a) OWASP Mobile Application Security (MAS) project
    b) Effective usage of the Mobile Application Security Verification Standard (MASVS).
    c) Effective usage of the Mobile Security Testing Guide (MSTG).
    d) Overview of the OWASP top 10 for mobile.
  5. Setting up and preparing a mobile security testing lab
    a) Configuration of industry-standard tools and guidance on their appropriate use.
    b) Setup of virtual mobile devices using Corellium, including its advantages.
    c) Introductory exercises to familiarize with the tools.
  6. Secure Coding Overview
    a) Exercises to identify vulnerabilities in code examples
    b) Discussion of the appropriate mechanisms for remediation
    c) Practical session on remediation and re-testing the app
  7. Secure storage
    a) Overview of application storage mechanisms.
    b) Introduction to cryptographic storage solutions on Android.

Advanced Techniques and Practical Application

  • Mobile penetration testing methodology
    a) Methodologies used in real-world scenarios with practical tips and tricks.
  • Identifying issues with backend APIs
    a) Examination of client-side trust issues.
    b) Analysis of insecure communications including certificate validation and pinning.
  • Cryptography in Android apps
    a) Utilization of Android’s Crypto APIs.
    b) Implementation of native cryptography using libraries like libnacl and OpenSSL.
    c) Management of cryptographic keys.
  • Authentication and Authorization
    a) Testing client-side authentication mechanisms, including secure usage of biometrics.
    b) Strategies to detect and bypass authentication flaws.
    c) Security measures for API authentication.
  • Android IPC
    a) Detailed exploration of Intents, deep links, Binders/services, and broadcast receivers.
  • Webviews
    a) Identifying and resolving common security issues in Android Webview configurations.
  • Software Composition Analysis (SBOM)
    a) Techniques to determine the components of an Android app.
    b) Identifying known vulnerabilities within these components.
  • Mobile Device Management (MDM)
    a) Introduction to Mobile Device Management: definition, core features, and its role in enhancing organizational security.
    b) Discussion on the benefits and practical applications of MDM in controlling and securing mobile devices across an enterprise.
  • Mobile Application Management (MAM)
    a) Overview of Mobile Application Management: what it entails and its significance in enterprise environments.
    b) Exploration of how MAM contributes to managing and securing applications specifically, detailing its utility for enterprise security strategies.

Advanced Techniques and Practical Application

  • Mobile penetration testing methodology
    a) Methodologies used in real-world scenarios with practical tips and tricks.
  • Identifying issues with backend APIs
    a) Examination of client-side trust issues.
    b) Analysis of insecure communications including App Transport Security issues & certificate pinning.
  • Cryptography in IOS apps
    a) Utilization of iOS’s CryptoKit & CommonCrypto APIs.
    b) Implementation of native cryptography using libraries like libnacl and OpenSSL.
    c) Management of cryptographic keys and leveraging the secure enclave.
  • Authentication and Authorization
    a) Testing client-side authentication mechanisms, including secure usage of Local Authentication (biometrics).
    b) Strategies to detect and bypass authentication flaws.
    c) Security measures for API authentication.
    d) Using Device Check and App Attest
  • iOS IPC
    a) Detailed exploration of URL schemes, deep (universal) links, and extensions.
  • Webviews
    a) Identifying and resolving common security issues in iOS Webview configurations.
  • Software Composition Analysis (SBOM)
    a) Techniques to determine the components of an iOS app.
    b) Identifying known vulnerabilities within these components.
  • Implementing App Integrity
    a) What to look for
    b) How to implement
  • Mobile Device Management (MDM)
    a) Introduction to Mobile Device Management: definition, core features, and its role in enhancing organizational security.
    b) Discussion on the benefits and practical applications of MDM in controlling and securing mobile devices across an enterprise.
  • Mobile Application Management (MAM)
    a) Overview of Mobile Application Management: what it entails and its significance in enterprise environments.
    b) Exploration of how MAM contributes to managing and securing applications specifically, detailing its utility for enterprise security strategies.

Fundamentals & Setup

  1. Overview of iOS’s architecture and ecosystem dynamics.
  2. Exploration of security features native to to iOS using Objective-C, Swift, and C(++).
  3. Mobile Application Threat Model
    a) Differences between mobile and web application threat models.
    b) Applying threat modeling techniques specifically to mobile applications.
    c) Case studies highlighting potential threats and vulnerabilities.
    d) How do we secure and test cross platform apps (e.g. ReactNative, Xamarin, etc).
  4. Introduction to industry mobile security standards
    a) OWASP Mobile Application Security (MAS) project
    b) Effective usage of the Mobile Application Security Verification Standard (MASVS).
    c) Effective usage of the Mobile Security Testing Guide (MSTG).
    d) Overview of the OWASP top 10 for mobile.
  5. Setting up and preparing a mobile security testing lab
    a) Configuration of industry-standard tools and guidance on their appropriate use.
    b) Setup of virtual mobile devices using Corellium, including its advantages.
    c) Introductory exercises to familiarize with the tools.
  6. Secure Coding Overview
    a) Exercises to identify vulnerabilities in iOS code examples
    b) Discussion of the appropriate mechanisms for remediation
    c) Practical session on remediation and re-testing the app
  7. Secure storage
    a) Overview of application storage mechanisms.
    b) Introduction to cryptographic storage solutions on iOS.