⚑ HIGHLIGHTS
πŸ›‘οΈ Protect against threats β€” ransomware, exploits & bots|⚑ Automate your infrastructure with AI|πŸ“Š Monitor, optimize & secure your servers|πŸ” Scan automation & vulnerability detection|πŸ’‘ Leverage AI & blockchain to reduce cost, engage clients and secure your platforms|πŸ›‘οΈ Protect against threats β€” ransomware, exploits & bots|⚑ Automate your infrastructure with AI|πŸ“Š Monitor, optimize & secure your servers|πŸ” Scan automation & vulnerability detection|πŸ’‘ Leverage AI & blockchain to reduce cost, engage clients and secure your platforms|
🔒 Zero-Compromise Security Architecture

Seamlessly streamline, Secure and enhance operations, significantly reduce overhead, and empower your team to maximize output— all from one powerful platform.

We provide enhanced security, cost savings, with increased efficiency and output.

Fortress-level security
at every layer

FluxCybers handles infrastructure that matters. Security isn't a feature β€” it's the foundation. Every credential encrypted with AES-256-GCM. Every action protected by impenetrable audit trails. Every access hardened with defense-in-depth controls.

Enterprise-grade protection on every plan

🔐

AES-256-GCM Encryption

All SSH credentials, API keys, and secrets are encrypted at rest using AES-256-GCM β€” the same standard used by financial institutions and classified government systems.

Encrypted at rest · Decrypted only at execution time in memory · Never logged or exposed
🔑

Two-Factor Authentication

2FA/MFA enforced across all accounts. Team plan allows admins to require MFA for all team members before they can access any server or execute any command.

TOTP-based MFA · Enforced per team · Recovery codes · No bypass
📋

Immutable Audit Trail

Every command, every execution, every approval β€” logged immutably with timestamps, user attribution, and full output. You always know exactly who did what and when.

Tamper-proof logs · User-attributed · Timestamped · Exportable for compliance
🌐

IP Allowlisting

Restrict FluxCybers access to specific IP ranges. Your team can only connect from approved networks β€” office, VPN, or specific cloud egress IPs. Unauthorized IPs are rejected before authentication.

Per-organization IP rules · CIDR notation · Immediate enforcement
🛡

Brute-Force Protection

Adaptive rate limiting on all authentication endpoints. Progressive delays, account lockouts, and IP-based throttling prevent credential stuffing and brute-force attacks.

Progressive lockouts · IP throttling · Alert on suspicious activity
🔒

CSRF & Injection Protection

CSRF tokens on all state-changing requests. Parameterized queries throughout. Input validation and sanitization on every API endpoint. OWASP Top 10 alignment by design.

CSRF tokens · SQL parameterization · Input sanitization · OWASP-aligned
📊

Predictive Threat Detection

ML models analyze behavioral baselines across your fleet in real time β€” detecting anomalies, correlating multi-stage attack chains, and predicting intrusion attempts before damage is done.

Anomaly detection · Attack chain correlation · Zero-day pattern recognition · Sub-second alerts
🔗

Blockchain Audit Ledger

Every infrastructure change, access event, and command is committed to a cryptographically chained, decentralized ledger. Tamper-proof by design β€” your compliance team gets bulletproof evidence on demand.

Immutable chain-of-custody · Cryptographic signatures · Built for SOC 2, ISO 27001 & PCI-DSS compliance

Security at every
architectural layer

FluxCybers's security model is layered β€” no single point of failure. Even if one control is bypassed, multiple independent controls protect your infrastructure.

  • 🔐

    Zero-knowledge credential storage

    We can't read your credentials even if we wanted to. Keys are encrypted with secrets only your instance holds.

  • Approval gates before execution

    No command runs without human approval. FluxCybers is a decision amplifier, not an autonomous actor.

  • 🔒

    Principle of least privilege

    FluxCybers uses whatever user you provide β€” no forced root access. Grant exactly the permissions tasks require.

  • 📋

    Session controls & timeouts

    Configurable session lifetimes, forced re-authentication for sensitive operations, and IP-scoped sessions.

Security Layers
Layer 1 — Perimeter
IP allowlisting · Rate limiting · DDoS protection
Layer 2 — Identity
JWT auth · 2FA/MFA · Brute-force protection
Layer 3 — Authorization
RBAC roles · Team permissions · Approval workflow
Layer 4 — Data
AES-256-GCM encryption · Parameterized queries
Layer 5 — Audit
Immutable logs · User attribution · Compliance export

FIPS 140-2 • Zero-Trust • Immutable Audit

The security posture banks, defense contractors, and government agencies expect. Built into the core β€” not bolted on.

SOC 2 Type II
Service Organization Controls
Authentication enforcement (CC6.1), encrypted transmission (CC6.7), least-privilege access control (CC6.3). Architecture aligned with SOC 2 trust service criteria for Security, Availability, and Confidentiality.
HIPAA
Protected Health Information
PHI access requires explicit authorization. All PHI interactions enforced through audit trail. Policy engine evaluates every AI action against HIPAA safeguards before execution.
PCI-DSS
Payment Card Industry
Cardholder data protection (Rule 3.4) enforced by policy engine. AES-256-GCM encryption mandatory for any cardholder data in transit or at rest. Automated compliance validation on every request.
FedRAMP / ITAR
Federal Authorization & ITAR
FIPS 140-2 algorithm enforcement (AES-256-GCM, RSA-4096, SHA-512). MFA required for all privileged access (AC-7). Policy templates for FedRAMP Low/Moderate/High and ITAR technical data controls.
FIPS 140-2 / 140-3
Cryptographic Standards
Only NIST-approved algorithms. Period.
All encryption uses Node.js built-in crypto module backed by OpenSSL. Symmetric encryption is AES-256-GCM (authenticated). Key derivation uses PBKDF2 with SHA-512 (310,000 iterations). No weak algorithms permitted β€” any non-FIPS algorithm is blocked at the policy layer.
AES-256-GCM PBKDF2-SHA-512 HMAC-SHA-256 RSA-4096 SHA-256/384/512
πŸ”’
Never Trust, Always Verify
Every AI action β€” regardless of origin β€” is authenticated, authorized against policies, and audited before execution. No implicit trust between components.
πŸ“‹
RBAC + ABAC
Role-based access control combined with attribute-based policies. Dynamic rules evaluate user role, resource ownership, MFA status, IP allowlist, and access hours simultaneously.
πŸ”—
Immutable Audit Chain
SHA-256 cryptographic hash chain β€” every audit entry links to the previous, creating a tamper-evident trail. Chain integrity verifiable on-demand for incident response and compliance export.
🔗 Cryptographic Audit Trail β€” SHA-256 Block Chain
genesis
hash: a3f8…
β†’
action: exec
prev: a3f8… hash: 7c2e…
β†’
action: policy_check
prev: 7c2e… hash: b91d…
β†’
action: output
prev: b91d… hash: 4fa2…
β†’
next entry…
Any modification to a past entry changes its hash, breaking the chain. Tampering is cryptographically detectable.

Security that helps you win deals

For MSPs and enterprises, security isn't just internal β€” it's a competitive differentiator and a client requirement.

📋
Audit-ready logs
Export immutable audit trails for compliance reviews, client reporting, and incident response
💸
Client trust
Demonstrate enterprise security posture to clients β€” differentiate your MSP from less secure competitors
Compliance support
Architecture aligned with SOC 2, HIPAA, and government compliance frameworks (contact for details)
🔑
Reduce breach risk
Centralized credential management eliminates SSH key sprawl and forgotten admin accounts across servers

Security questions

More questions? Email our security team.

Where are my SSH credentials stored?
Credentials are stored encrypted in our database using AES-256-GCM. The encryption key is stored separately in environment variables, not in the database. Credentials are decrypted only at execution time, in memory, and are never written to logs or execution history.
Does FluxCybers need root access to my servers?
No. FluxCybers uses whatever credentials you provide. For tasks that require elevated permissions (like installing packages), you control whether to provide a sudo-capable user. Most monitoring and read operations work with non-root users.
What happens if FluxCybers is compromised?
Defense in depth means a single compromise doesn't expose everything. Your credentials are encrypted β€” an attacker needs both the database and the encryption key to decrypt them. Additionally, FluxCybers never stores credentials in plaintext anywhere, including logs, audit trails, or backups.
Can we use FluxCybers for HIPAA or government environments?
Our Enterprise plan includes compliance-ready architecture, audit log export, self-hosted deployment options, and custom security controls. Contact us to discuss your specific compliance requirements and we'll provide a security assessment.
How does the audit log prevent tampering?
Audit log entries are append-only with database-level write protection. Once an execution is logged, it cannot be modified or deleted through the application. Enterprise plans include log export to your own immutable storage (S3, Azure Blob, etc.) for additional assurance.
Military-grade protection on every plan

Bank-vault security shouldn't be
an Enterprise-only feature.

AES-256-GCM encryption, 2FA, impenetrable audit trails, and IP allowlisting β€” hardened infrastructure included from day one, at every price point.

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