Executive Summary
Spikerz has engineered a security-first platform that protects enterprise social media credentials with the same rigor applied to financial and healthcare data systems. As a SOC 2 Type II certified organization, we implement defense-in-depth controls, military-grade encryption, and strict access governance to ensure your organization's digital assets remain protected against evolving threats.
This document provides a comprehensive technical overview of the Spikerz security architecture, encryption standards, and operational controls designed to meet the requirements of the most security-conscious enterprises.
Core Security Capabilities:
Capability | Implementation |
Compliance | SOC 2 Type II Certified |
Encryption Standard | AES-256-GCM (NIST-approved) |
Key Management | Cloud-native KMS (AWS/GCP) with HSM backing |
Authentication | Enterprise SSO/MFA required for sensitive operations |
Access Control | Granular RBAC with workspace isolation |
Threat Detection | Continuous breach monitoring with automated response |
Audit Capability | Comprehensive logging with SIEM integration |
Table of Contents
Security Architecture Overview
Cryptographic Controls
Social Media Password Storage
Key Management Infrastructure
Identity and Access Management
Credential Access Protection
Multi-Factor Authentication
Threat Detection and Response
Security Monitoring and Audit
Compliance and Certifications
Security Assurance
1. Security Architecture Overview
1.1 Design Principles
The Spikerz security architecture is founded on established security frameworks and industry best practices:
Principle | Implementation |
Defense in Depth | Multiple independent security controls at network, application, and data layers |
Zero Trust | All requests authenticated and authorized regardless of network origin |
Least Privilege | Minimal access granted; escalation requires explicit authorization |
Separation of Duties | Critical operations require multiple authentication factors |
Secure by Default | Security controls enabled by default; exceptions require justification |
Encryption Everywhere | All sensitive data encrypted at rest and in transit |
1.2 Security Architecture Layers
The Spikerz platform implements seven distinct security layers, each providing independent protection:
Transport Security enforces TLS 1.2+ with strong cipher suites for all communications. Edge Protection provides rate limiting, DDoS mitigation, and web application firewall capabilities. Identity Verification handles authentication through Firebase Authentication with SSO integration and MFA enforcement. Authorization Layer manages workspace isolation, role-based access control, and resource-level permissions. Application Security implements input validation, business logic controls, and secure error handling. Data Protection applies AES-256-GCM field-level encryption and data isolation. Persistence Layer utilizes MongoDB with encryption at rest and encrypted backups. Key Management leverages AWS Secrets Manager or GCP Secret Manager with HSM-backed protection.
Each layer operates independently, ensuring that compromise of any single layer does not result in unauthorized access to protected data.
2. Cryptographic Controls
2.1 Encryption Standard
All sensitive credentials within Spikerz are protected using AES-256-GCM (Advanced Encryption Standard with Galois/Counter Mode)—the encryption standard mandated by the U.S. government for TOP SECRET classified information.
Criterion | AES-256-GCM Capability |
Regulatory Acceptance | NIST-approved; |
Confidentiality | 256-bit key provides protection against all known attack vectors |
Integrity | GCM authentication tag detects any unauthorized modifications |
Performance | Hardware acceleration via AES-NI instructions |
Industry Adoption | Standard in banking, healthcare, defense, and government sectors |
2.2 Encryption Implementation
Technical Specifications:
Parameter | Value |
Algorithm | AES-256-GCM |
Key Length | 256 bits (32 bytes) |
Initialization Vector | 128 bits, cryptographically random per operation |
Authentication Tag | 128 bits |
Key Storage | Cloud KMS with HSM backing |
Encryption Process:
The encryption process begins with IV Generation, where a 128-bit cryptographically random value is generated via CSPRNG for each operation. During Encryption, plaintext is encrypted using AES-256-GCM with the unique IV. The Authentication phase computes a GCM authentication tag over the ciphertext to ensure integrity. Finally, the encrypted payload is stored with IV and authentication tag for secure retrieval.
Security Properties Achieved:
IND-CPA Security: Ciphertext computationally indistinguishable from random data
INT-CTXT Security: Ciphertext integrity cryptographically verified before decryption
Nonce Uniqueness: Random IV ensures no key-stream reuse across operations
3. Social Media Password Storage
3.1 Overview
Spikerz provides secure storage for social media account passwords as part of the Account Protection feature. This capability enables organizations to maintain centralized, secure access to critical social media credentials while enforcing enterprise security policies.
3.2 Password Storage Security Model
Encryption at Rest:
Every social media password stored within Spikerz is encrypted using AES-256-GCM before being written to the database. Passwords are never stored in plaintext under any circumstances. The encryption process generates a unique initialization vector for each password, ensuring that identical passwords produce different ciphertext.
Security Control | Implementation |
Encryption Algorithm | AES-256-GCM |
Key Size | 256 bits |
IV Generation | Cryptographically random, unique per password |
Integrity Protection | GCM authentication tag |
Key Storage | Isolated in cloud KMS, never co-located with data |
3.3 Password Lifecycle Management
Password Creation and Update:
When a password is stored or updated, the system encrypts the credential using the dedicated password encryption key retrieved from the cloud KMS. The encrypted password, along with the IV and authentication tag, is stored in the database. Metadata including the last rotation timestamp is maintained for audit and compliance purposes.
Password Rotation:
Spikerz supports automated password rotation for protected social media accounts. When rotation is triggered, the system generates a new cryptographically secure password using a CSPRNG with a character set including uppercase letters, lowercase letters, digits, and special characters. The new password is encrypted and stored, and the rotation event is logged in the audit trail.
Rotation Parameter | Specification |
Password Length | Configurable (minimum 16 characters) |
Character Set | 89 characters (A-Z, a-z, 0-9, special characters) |
Entropy | Approximately 103 bits (16-character password) |
3.4 Password Access Controls
Authentication Requirements:
Access to stored social media passwords requires enhanced authentication. Users must authenticate via enterprise SSO and complete MFA verification before any password can be retrieved. This dual authentication requirement applies to all password access operations, including viewing, copying, and exporting credentials.
Access Operation | SSO Required | MFA Required | Audit Level |
View encrypted password | Yes | Yes | Enhanced |
Copy password to clipboard | Yes | Yes | Enhanced |
Rotate password | Yes | Yes | Enhanced |
Export password | Yes | Yes | Critical |
View password history | Yes | Yes | Enhanced |
3.5 Password Isolation
Each workspace maintains complete isolation of stored credentials. Passwords stored by one organization are cryptographically inaccessible to other organizations, even in multi-tenant deployments. Database-level access controls, combined with application-level authorization, ensure that cross-workspace access is architecturally prevented.
3.6 Secure Password Retrieval
When an authorized user requests access to a stored password, the following security workflow executes:
SSO Validation: The system validates the user's SSO session with the enterprise identity provider
MFA Challenge: The user completes a second-factor authentication challenge
Authorization Check: The system verifies the user has appropriate role permissions for the requested account
Key Retrieval: The password decryption key is retrieved from the cloud KMS
Decryption: The password is decrypted in memory using AES-256-GCM
Audit Logging: The access event is recorded with full context
Secure Display: The password is displayed to the user via secure channel
Memory Clearing: Decrypted password is cleared from memory after display
3.7 Password Audit Trail
Every interaction with stored passwords is captured in the immutable audit log:
Event | Captured Data |
Password stored | Timestamp, user, account, platform |
Password viewed | Timestamp, user, account, IP address |
Password rotated | Timestamp, user, account, rotation trigger |
Password exported | Timestamp, user, account, export format |
Access denied | Timestamp, user, account, denial reason |
4. Key Management Infrastructure
4.1 Key Management Architecture
Encryption keys are managed through dedicated cloud key management services with hardware security module (HSM) backing. Spikerz maintains complete separation between encryption keys and encrypted data—keys are never stored in the same infrastructure as the protected content. All keys are protected by FIPS 140-2 Level 3 validated hardware security modules. Every key access operation is captured in immutable audit logs for compliance and forensic purposes. Keys support zero-downtime rotation without service interruption. Geographic isolation ensures keys are stored in dedicated security infrastructure separate from application systems.
4.2 Supported Key Management Services
AWS Secrets Manager:
Capability | Implementation |
Encryption | AWS KMS with customer-managed CMK option |
Access Control | IAM policies with least privilege enforcement |
Audit | CloudTrail logging with tamper-evident records |
Rotation | Automatic rotation with zero-downtime deployment |
Availability | Multi-AZ deployment with 99.99% SLA |
Google Cloud Secret Manager:
Capability | Implementation |
Encryption | Cloud KMS with customer-managed keys option |
Access Control | IAM with fine-grained permissions |
Audit | Cloud Audit Logs with real-time streaming |
Versioning | Full version history with rollback capability |
Availability | Regional/multi-regional deployment options |
4.3 Key Hierarchy
Spikerz implements a hierarchical key management structure. At the top level, Cloud KMS Master Keys (KEK) are HSM-protected and never exported from the security boundary. These master keys encrypt Data Encryption Keys (DEK), which are loaded into application memory at runtime only. Separate DEKs are maintained for different data categories: password encryption, 2FA secret encryption, and SSO credential encryption. This separation ensures that compromise of any single DEK limits the scope of potential exposure.
5. Identity and Access Management
5.1 Authentication Architecture
Enterprise Authentication Foundation:
Feature | Capability |
Protocol | OAuth 2.0 / OpenID Connect |
Token Format | JWT with RS256 signature verification |
Token Lifetime | Short-lived with secure refresh mechanism |
SSO Integration | Enterprise identity provider support |
MFA Enforcement | Required for sensitive operations |
Threat Protection | Real-time threat intelligence integration |
5.2 Authorization Model
Spikerz implements a multi-layer authorization model. Identity Verification performs cryptographic token validation at the API gateway. Workspace Authorization verifies organizational membership at the middleware layer. Role Authorization evaluates permission levels within business logic. Resource Authorization confirms asset ownership at the data layer. Operation Authorization validates sensitive actions at the transaction level.
Each authorization layer operates independently, and all layers must pass for a request to succeed.
5.3 Role-Based Access Control
Permission Hierarchy:
Role | Administrative | Operational |
Workspace Owner | Full control | Full access |
Administrator | User & config management | Full access |
Member | None | Assigned accounts |
6. Credential Access Protection
6.1 Sensitive Credential Access Requirements
Spikerz implements strict access controls for credential retrieval within the Account Protection feature. Access to plaintext passwords requires enhanced authentication:
Access Requirement | Enforcement |
SSO Authentication | User must authenticate via enterprise SSO provider |
MFA Verification | Multi-factor authentication required at time of access |
Session Validation | Active authenticated session with valid token |
Role Authorization | Appropriate workspace role with account access |
Audit Logging | Every access attempt logged with full context |
6.2 Credential Access Workflow
When a user requests access to a protected password, the system first validates the user's SSO session with the enterprise identity provider. The system then requires MFA verification—the user must complete a second authentication factor (TOTP, push notification, or hardware key) before credentials are revealed. Only after both authentication factors are validated does the system decrypt and display the credential. Every access event—including the user identity, timestamp, IP address, and accessed resource—is recorded in the immutable audit log.
7. Multi-Factor Authentication
7.1 TOTP Implementation
Technical Specifications:
Parameter | Value | Compliance |
Algorithm | TOTP (RFC 6238) | NIST SP 800-63B |
Hash Function | HMAC-SHA1 | Standard |
Time Step | 30 seconds | Standard |
Code Length | 6 digits | Standard |
Secret Length | 160 bits minimum | NIST recommended |
Secret Protection:
TOTP secrets are encrypted at rest using AES-256-GCM. Secrets are transmitted only during initial enrollment over encrypted channels. Backup codes are encrypted separately from primary secrets. Secret deletion is immediate and irreversible upon 2FA disable.
7.2 Backup Code Security
Control | Implementation |
Generation | Cryptographically random using CSPRNG |
Storage | AES-256-GCM encrypted, separate from TOTP secrets |
Usage | Single-use; invalidated immediately after use |
Regeneration | All previous codes invalidated upon regeneration |
8. Threat Detection and Response
8.1 Credential Breach Monitoring
Spikerz provides continuous monitoring for credential exposure across known data breaches:
Threat | Detection Method | Response |
Email in data breach | Integration with breach databases | Automated alert generation |
Password in breach database | Credential exposure monitoring | Immediate user notification |
New breach disclosure | Continuous monitoring service | Affected user identification |
Breach Alert Workflow:
Upon detection, the system correlates exposed data to user accounts and calculates risk severity based on breach recency and scope. Security alerts are generated with specific remediation guidance, and notifications are dispatched to users and administrators according to configured policies. Resolution is tracked through the complete alert lifecycle.
8.2 Suspicious Activity Detection
Event Type | Detection | Response |
New device login | Device fingerprinting | Alert with location/device info |
Geographic anomaly | IP geolocation analysis | Risk-based alert generation |
Failed authentication spike | Rate monitoring | Account protection activation |
Permission escalation | Audit log analysis | Administrator notification |
9. Security Monitoring and Audit
9.1 Audit Log Architecture
Log Event Categories:
Category | Events Captured |
Authentication | Login, logout, token refresh, MFA events, SSO sessions |
Authorization | Permission grants, revocations, role changes |
Data Access | Credential retrieval, password rotation, 2FA access |
Configuration | Security settings, integration changes |
Administrative | User management, workspace operations |
Log Record Structure:
Field | Description |
timestamp | UTC timestamp with millisecond precision |
actor.id | Unique user identifier |
actor.email | User email address |
action | Specific action performed |
resource.type | Type of resource accessed |
resource.id | Unique resource identifier |
outcome | Success or failure with reason |
metadata | Additional context (IP, user agent, platform) |
9.2 SIEM Integration
Supported Integrations:
Platform | Integration Type | Data Format |
Microsoft Sentinel | Native API | CEF/ASIM |
Splunk | Webhook/HEC | JSON |
Slack | Webhook | Formatted alerts |
Custom SIEM | REST API | JSON |
Alert routing is configurable by severity, with real-time notification delivery and batch export capabilities for compliance reporting.
9.3 Log Retention and Export
Requirement | Capability |
Retention Period | Configurable per organizational policy |
Export Formats | Excel, CSV, JSON |
Filtering | Date range, action type, user, resource |
Access Control | Administrative access required for export |
10. Compliance and Certifications
10.1 SOC 2 Type II Certification
Spikerz has successfully completed SOC 2 Type II certification, demonstrating our commitment to maintaining the highest standards of security, availability, and confidentiality. The SOC 2 audit, conducted by an independent third-party auditor, evaluated our controls over an extended observation period and verified their operational effectiveness.
SOC 2 Trust Service Criteria:
Criterion | Status | Coverage |
Security | Certified | System protection against unauthorized access |
Availability | Certified | System availability for operation and use |
Confidentiality | Certified | Protection of confidential information |
Processing Integrity | Evaluated | System processing completeness and accuracy |
Privacy | Evaluated | Personal information collection and use |
10.2 Compliance Framework Alignment
Framework | Alignment |
SOC 2 Type II | Certified |
ISO 27001 | Controls aligned |
NIST Cybersecurity Framework | Controls mapped |
GDPR | Data protection requirements addressed |
CCPA | Privacy requirements addressed |
10.3 Security Control Mapping
SOC 2 Control | Spikerz Implementation |
CC6.1 - Logical Access | Multi-layer authentication with SSO/MFA |
CC6.6 - Encryption | AES-256-GCM for all sensitive data |
CC6.7 - Transmission Security | TLS 1.2+ for all communications |
CC7.2 - System Monitoring | Comprehensive audit logging and SIEM integration |
CC8.1 - Change Management | Controlled deployment with security review |
10.4 Audit Reports
SOC 2 Type II audit reports are available to customers and prospects under NDA. Reports detail the scope of the audit, control descriptions, testing procedures, and auditor findings.
11. Security Assurance
11.1 Security Testing
Assessment Type | Frequency | Scope |
Automated vulnerability scanning | Continuous | Full application |
Dependency vulnerability analysis | Daily | All dependencies |
Static application security testing | Per deployment | Code changes |
Penetration testing | Annual | Full platform |
11.2 Security Governance
Process | Description |
Security review | All changes reviewed for security implications |
Incident response | Documented procedures with defined SLAs |
Vulnerability management | Prioritized remediation based on risk |
Security awareness | Ongoing team training and certification |
11.3 Continuous Improvement
Spikerz maintains an active security program with continuous enhancement of controls based on emerging threats, industry developments, and audit findings. Security metrics are reviewed regularly by leadership, and improvement initiatives are prioritized based on risk assessment.
Appendix A: Cryptographic Specifications
Component | Specification |
Symmetric Encryption | AES-256-GCM |
Hash Function | SHA-256 |
Random Number Generation | CSPRNG (Node.js crypto module) |
Key Derivation | Cloud KMS managed |
Token Signature | RS256 (Firebase) |
TLS Cipher Suites | ECDHE+AESGCM |
Appendix B: Security Contacts
Purpose | Contact |
Security inquiries | |
Vulnerability disclosure | |
Compliance documentation | |
SOC 2 report requests |
This document is provided for informational purposes and represents the Spikerz security architecture as of the publication date. Security controls are continuously evaluated and enhanced based on emerging threats and industry best practices. Spikerz maintains SOC 2 Type II certification with annual renewal.