Security Policy
Last Updated: November 17, 2025
1. Introduction and Security Philosophy
Atlas Authentication is built on a foundational principle: security is not a feature—it is architecture. Our comprehensive protection framework combines cryptographic excellence, behavioral analysis, hardware binding, and continuous monitoring to create an authentication system designed to be logically impossible to bypass through legitimate means.
This Security Policy details the technical security mechanisms protecting your licenses, data, and intellectual property. Atlas implements multiple independent layers of protection so that compromising one system does not compromise the entire architecture. We are transparent about what we protect against and honest about security limitations.
Security Principle: No software system is 100% secure. While Atlas employs techniques and protections that significantly exceed industry standards, we acknowledge that determined attackers with sufficient resources may eventually discover or exploit vulnerabilities. We commit to identifying and patching vulnerabilities rapidly once discovered.
2. Cryptographic Foundation
2.1 HMAC-SHA256 Message Authentication
Every request and response between the client and Atlas servers is authenticated using HMAC-SHA256 (Hash-based Message Authentication Code):
Algorithm: HMAC-SHA256
Hash Function: SHA-256 (256-bit output)
Key Size: 256-bit (minimum)
Key Rotation: Every 30 days
Purpose: Authenticate message origin and verify no tampering occurred in transit
HMAC-SHA256 ensures that:
- Every authentication request is cryptographically signed proving it originated from your application
- If a single bit of the request is modified in transit, the HMAC validation fails immediately
- Attackers cannot forge valid HMACs without knowing the secret key
- Replay attacks are prevented through timestamp validation and nonce systems
2.2 Custom Stream Cipher (Proprietary Algorithm)
Atlas implements a proprietary stream cipher for traffic encryption, designed specifically for authentication protocol efficiency:
Type: Synchronous stream cipher
Key Size: 256-bit
Security Parameter: Equivalent to 256-bit symmetric encryption
Nonce Size: 128-bit (unique per message)
Derived From: Cryptographic hash functions for key derivation
Purpose: Encrypt sensitive data in transit with minimal overhead
This custom cipher:
- Encrypts all authentication requests and responses preventing observation of protocol patterns
- Uses unique nonce per message preventing identical plaintexts from producing identical ciphertexts
- Provides semantic security against chosen-plaintext attacks
- Achieves high throughput necessary for 100ms average response times
- Is updated independently of standard library implementations, reducing dependency on third-party security patches
2.3 ECDH P-256 Elliptic Curve Key Exchange
For secure file downloads and sensitive data exchange, Atlas implements ECDH (Elliptic Curve Diffie-Hellman) with the P-256 curve (also known as secp256r1 or prime256v1):
Curve: P-256 (secp256r1)
Key Size: 256-bit (equivalent to 3072-bit RSA in security strength)
Standard: NIST FIPS 186-4 approved
Perfect Forward Secrecy: Enabled (session-specific keys)
Use Cases: License file downloads, sensitive configuration exchange
ECDH P-256 provides:
- Negotiation of shared session keys between client and server
- Perfect forward secrecy—even if long-term keys are compromised, past sessions remain secure
- Government-approved cryptography (NSA Suite B compatibility)
- Efficient key agreement reducing computational overhead
2.4 TLS 1.3 Transport Layer Security
All connections between clients and Atlas servers use TLS 1.3 with strict cipher suite requirements:
Protocol: TLS 1.3 (RFC 8446)
Minimum Cipher Suites:
- TLS_AES_256_GCM_SHA384
- TLS_CHACHA20_POLY1305_SHA256
Key Exchange: P-256, P-384, or P-521
Perfect Forward Secrecy: Always enabled
Certificate Pinning: Enabled for API endpoints
TLS 1.3 configuration ensures:
- Transport-level encryption on top of application-level encryption (defense in depth)
- No support for deprecated or weak ciphers or key exchange mechanisms
- Session resumption uses encrypted session tickets preventing passive observers from correlating sessions
- Zero-round-trip time (0-RTT) mode is disabled preventing certain attacks
2.5 Dynamic Key Rotation
All cryptographic keys used in production are rotated on fixed schedules:
- API Keys: Rotated every 90 days with overlap period for seamless transition
- HMAC Keys: Rotated every 30 days
- Stream Cipher Keys: Rotated every 7 days
- TLS Certificates: Renewed 30 days before expiration; wildcard certificates cover all subdomains
- Database Encryption Keys: Rotated every 180 days with key versioning for backward compatibility
Key rotation ensures that:
- Compromise of a single key provides access to at most 30 days of communications
- Cryptanalytic attacks requiring long observation periods are less feasible
- Rotation is performed without service interruption using versioned keys
- Old keys are securely destroyed after rotation overlap period expires
3. Hardware Binding and License Enforcement
3.1 Advanced Hardware Fingerprinting Methodology
Atlas creates unique digital identifiers for each system by combining 10+ hardware and system characteristics that are extremely difficult to spoof or manipulate:
3.1.1 Primary Hardware Identifiers
1. CPU Serial Number - Unique processor identification
2. Motherboard ID - BIOS-level unique identifier
3. BIOS/Firmware Serial - Firmware-level hardware identification
4. Storage Device Serial - Hard drive/SSD unique identifiers
5. MAC Addresses - Network interface physical addresses
6. GPU Identifiers - Graphics processor unique IDs
7. Physical Volume IDs - Storage partition GUIDs
8. System UUIDs - Windows/Linux unique installation IDs
9. Firmware Revision - Specific firmware version identifiers
10. OEM Manufacturer Data - Original equipment manufacturer strings
3.1.2 Fingerprinting Algorithm
These identifiers are combined using cryptographic hashing:
- All 10+ identifiers are concatenated in a standardized format
- The concatenated string is hashed using SHA-256
- Additional metadata (OS version, locale, install date) is included in hash computation
- The resulting hash becomes the unique "hardware fingerprint"
- This fingerprint is computationally infeasible to reverse (SHA-256 has no known preimage attacks)
3.1.3 Binding Enforcement
When a license is activated:
- The client library captures the hardware fingerprint
- This fingerprint is sent to Atlas servers and stored in the database
- Every subsequent authentication request includes the hardware fingerprint
- If the fingerprint doesn't match the enrolled fingerprint, authentication fails
- Deviation detection identifies hardware upgrades vs. different machines
3.2 Adaptive Binding Intelligence
Atlas distinguishes between legitimate hardware changes and attempts to use licenses on new machines:
3.2.1 Legitimate Upgrade Detection
- RAM Upgrades: Adding or replacing RAM does not change the hardware fingerprint (RAM serial numbers are typically generic)
- Storage Upgrades: Adding secondary drives or replacing existing drives is detected and flagged for review
- Network Card Replacement: Replacement of network interfaces is tolerated within frequency patterns
- Motherboard Battery: CMOS battery replacement does not invalidate binding
- OS Updates: Windows or Linux updates that don't affect core hardware identifiers are tolerated
3.2.2 Hardware Change Detection
- CPU Replacement: CPU serial number change triggers immediate binding validation
- Motherboard Replacement: Motherboard ID change is detected and requires license re-binding
- Storage Replacement: Primary drive replacement triggers validation
- Multiple Component Changes: Changes to 3+ core components are treated as new hardware
3.2.3 Corporate Environment Support
Enterprise customers may request multiple hardware bindings per license for legitimate multi-workstation deployments:
- Up to 3 concurrent hardware bindings per enterprise license (by default)
- Additional bindings can be requested with justification
- All bindings are logged and monitored
- Excess bindings trigger fraud investigation
3.3 Cloning and Sharing Prevention
Atlas actively detects and prevents license cloning (one license running on multiple different machines):
- Multi-Fingerprint Detection: If one license key authenticates from 3+ different hardware fingerprints, immediate suspension
- Geographic Impossibility: If authentications occur from geographically distant locations within physically impossible timeframes, account flagged
- Concurrent Session Analysis: If session limits are exceeded, oldest sessions are terminated and abuse is logged
- Time-of-Day Analysis: If multiple locations show simultaneous activity (unlikely for single user), flagged as sharing
4. Application Integrity Verification
4.1 Binary Hash Verification
Atlas provides hard-locked application hash restrictions—the industry's most restrictive protection mechanism:
Hash Algorithm: SHA-256
Verification: Server-side only (client cannot modify)
Enforcement: 100% of authentication requests include hash verification
Modification Detection: Single-byte change invalidates hash
Admin Control: Administrators can designate approved hash versions
How it works:
- You upload the SHA-256 hash of your protected application binary to the admin panel
- When the application initializes, the client library computes the application's hash
- This hash is included in every authentication request
- Atlas servers verify the hash matches an approved version
- If the application has been modified or patched, the hash changes and authentication fails
This prevents:
- Cracked versions of your application from authenticating
- Patched/modified versions from running even with valid license keys
- Bad actors from distributing working copies with bypass techniques
- Custom versions created by modifying your binary
4.2 Digital Signature Validation
Atlas validates that protected applications are digitally signed by legitimate developers:
- Code must be signed with a valid signing certificate
- Unsigned or self-signed executables (outside approved certificates) are rejected
- Certificate validation includes revocation checking via CRL or OCSP
- Signature tampering triggers immediate authentication failure
4.3 Runtime Integrity Monitoring
The client library performs continuous runtime checks:
- Memory Checksums: Critical code sections are checksummed and validated during execution
- Control Flow Integrity: Execution paths are validated against known good patterns
- Stack Canaries: Stack integrity markers detect buffer overflow attempts
- ASLR Compatibility: Full support for address space layout randomization
5. Anti-Tampering and Debugging Protection
5.1 Anti-Debugging Systems
Atlas client library actively detects and resists debugging attempts:
- Debugger Detection: Runtime detection of attached debuggers (WinDbg, x64dbg, IDA Pro, etc.)
- Anti-Trace Protection: Detection of ptrace and strace debugging on Linux systems
- Hardware Breakpoint Detection: Detection of CPU-level breakpoints
- INT3 Scanning: Detection of software breakpoints injected into code
- Parent Process Analysis: Identification of debugging tools spawning the application
- PEB/TEB Analysis: Windows Process Environment Block examination for debug flags
Detection results in:
- Immediate authentication failure
- Debug flag logged to server
- Account activity review for other suspicious patterns
- Potential account suspension if combined with other violations
5.2 API Hook Detection
Atlas detects attempts to intercept or modify our API calls:
- Import Address Table (IAT) Hooks: Detection of IAT modification
- Inline Hooking: Detection of function prologue modification
- DLL Injection: Detection of unauthorized DLLs in process memory
- VEH/SEH Hooks: Detection of exception handler modification
- Direct System Call Validation: Verification that system calls are unmodified
5.3 Memory Protection
Atlas implements multiple layers of memory protection:
- Stack Overflow Protection: Canary values detect stack buffer overflows
- Heap Protection: Heap integrity markers prevent corruption
- DEP/NX Bit: Data execution prevention prevents code injection into data regions
- ASLR Support: Address space randomization prevents predictable memory layouts
- Return-Oriented Programming (ROP) Protection: Control flow guard validates indirect jumps
- Memory Encryption: Sensitive data like license keys may be encrypted in memory
5.4 Patch Detection Systems
Atlas detects attempts to patch or modify the client library:
- Runtime integrity checks verify client library hasn't been modified
- File hash validation checks disk copy against known good hash
- Relocation table analysis detects code patching attempts
- Import table validation ensures system calls are unmodified
6. Behavioral Analysis Engine
6.1 Authentication Pattern Analysis
Atlas analyzes authentication patterns to identify suspicious activity:
6.1.1 Geographic Anomaly Detection
- Impossible Travel: If user authenticates from City A then City B within physically impossible time (e.g., 500 miles in 30 minutes), flagged
- First-Time Locations: Authentication from new geographic region triggers enhanced verification
- VPN/Proxy Detection: Connections through known VPN providers are logged and may trigger verification
- Country-Specific Blocks: Authentication from sanctioned countries is blocked
6.1.2 Temporal Pattern Analysis
- Unusual Hours: Authentication at 3 AM when user typically authenticates at 9 AM is logged
- Frequency Abnormality: 50 authentications per hour when baseline is 5/hour is flagged
- Weekend vs. Weekday: Different patterns detected and validated
- Burst Detection: Rapid-fire authentication attempts are rate limited
6.1.3 Concurrent Session Analysis
- Exceeding configured concurrent session limits triggers immediate oldest-session termination
- Multiple concurrent sessions from same user but different geographies is flagged
- Session duration analysis identifies abnormally long or short sessions
6.2 Machine Learning and Continuous Improvement
Atlas behavioral systems improve over time:
- Baseline Learning: Normal behavior patterns established over first 30 days of usage
- Anomaly Scoring: Each authentication receives an anomaly score (0-100)
- Adaptive Thresholds: Thresholds adjust based on user profile and history
- False Positive Reduction: Legitimate users can whitelist locations/times
- Predictive Detection: Patterns predictive of compromise are identified before attacks occur
7. Real-Time Monitoring and Incident Response
7.1 24/7 Security Monitoring
Atlas infrastructure is continuously monitored for security threats:
- Intrusion Detection Systems: Network intrusions detected in real-time
- Log Aggregation: All security events collected and analyzed
- Alert Escalation: Critical alerts immediately escalated to security team
- Automated Response: Certain threats trigger automatic mitigation (IP blocking, account suspension)
7.2 Automated Threat Response
Detected threats trigger automatic responses:
- Credential Stuffing: IP addresses with >5 failed logins per minute are automatically rate-limited
- License Abuse: Accounts with >3 different hardware fingerprints are suspended pending review
- Payment Fraud: Flagged transactions are automatically held for manual review
- DDoS Mitigation: Proof-of-work challenges issued to detect automated attack traffic
7.3 Incident Response Procedures
Atlas maintains incident response procedures:
- Detection: Security monitoring systems identify incidents within minutes
- Containment: Affected systems are isolated or access restricted
- Investigation: Root cause analysis and scope assessment
- Remediation: Vulnerabilities are patched and controls strengthened
- Notification: Affected users are notified per applicable legal requirements
- Follow-Up: Preventive measures implemented to prevent recurrence
8. Proof-of-Work Defense Against DoS
8.1 Computational Challenge System
Atlas implements proof-of-work challenges to defend against denial-of-service attacks:
Algorithm: Adaptive difficulty proof-of-work
Challenge Type: SHA-256 partial collision
Difficulty: Dynamically adjusted based on load
Verification: Server-side only
Typical Complexity: 2^16 to 2^20 SHA-256 operations required
8.2 How PoW Protection Works
- During high-load conditions, incoming requests receive a computational challenge
- Client must compute SHA-256 hashes until finding one meeting difficulty criteria
- Typical legitimate client finishes challenge in 50-500ms
- Attackers launching thousands of requests per second cannot complete challenges efficiently
- Legitimate users experience minimal impact; attackers cannot proceed
8.3 Attack Mitigation Benefits
- Economic Deterrent: Launching large-scale attacks becomes computationally expensive
- Bot Detection: Automated bots typically cannot complete PoW challenges
- Rate Limiting Enhancement: PoW supplementing traditional rate limiting
- Resource Protection: Server resources protected from exhaustion
9. Vulnerability Disclosure and Bug Bounty
9.1 Responsible Disclosure Policy
Atlas takes security vulnerabilities seriously and encourages responsible disclosure:
9.1.1 How to Report Vulnerabilities
If you discover a security vulnerability in Atlas systems:
- Email: atlassolutionsnoreply@gmail.com with detailed vulnerability description
- Do Not Disclose: Do not publicly disclose until we've had 90 days to patch
- Provide Details: Include affected components, reproduction steps, impact assessment
- Proof of Concept: Include PoC code if possible (without causing damage)
9.1.2 Response Timeline
- Acknowledgment: Within 24 hours of report submission
- Initial Assessment: Within 5 business days
- Patch Development: Severity-dependent timeline (critical: 7 days, high: 14 days, medium: 30 days)
- Public Disclosure: After patches are deployed and users have time to update (minimum 30 days)
9.2 Bug Bounty Program
Atlas offers cash rewards for reported security vulnerabilities:
- Critical (CVSS 9-10): $5,000 - $10,000
- High (CVSS 7-8.9): $1,000 - $5,000
- Medium (CVSS 4-6.9): $250 - $1,000
- Low (CVSS 0-3.9): $50 - $250
Bounties are awarded for:
- Valid security vulnerabilities with reproducible proof of concept
- Vulnerabilities in client library, API, web panel, or supporting infrastructure
- First disclosure to Atlas (not previously reported)
- Issues not already known by security team
Bounties are not awarded for:
- Vulnerabilities in third-party dependencies (report to dependency maintainer)
- Social engineering or user error
- Issues violating responsible disclosure (publicly disclosed without notice)
- Issues already under active development/fix
- Issues requiring paid tools or expensive infrastructure to exploit
10. Security Testing and Assessments
10.1 Regular Security Testing
Atlas conducts ongoing security assessments:
- Vulnerability Scanning: Automated scanning of all systems on 24-hour schedule
- Penetration Testing: Annual comprehensive pen testing by qualified external firm
- Code Review: Security-focused code review of all changes before deployment
- Static Analysis: Automated static code analysis identifying common vulnerabilities
- Dependency Scanning: Continuous scanning of third-party dependencies for known vulnerabilities
10.2 Authorized Security Testing
If you wish to conduct authorized security testing against your own license/account:
- Submit written request to atlassolutionsnoreply@gmail.com
- Describe scope and methodology clearly
- Agree to test only your own accounts/infrastructure
- Atlas will provide testing environment and authorization
- Report findings through responsible disclosure process
11. Infrastructure and Data Center Security
11.1 Physical Security
- Servers hosted in tier 3+ data centers with redundant security
- 24/7 armed security and surveillance
- Biometric access controls to server rooms
- Visitor tracking and background checks
- Environmental controls (temperature, humidity, smoke detection, fire suppression)
11.2 Network Security
- Network Segmentation: Payment systems, user data, and infrastructure on separate networks
- Firewalls: Multiple firewall layers with strict ingress/egress rules
- VPC Isolation: Database and backend systems in private subnets not accessible from internet
- CDN/DDoS Protection: Anycast CDN and DDoS mitigation in front of all public endpoints
- Intrusion Detection: IDS/IPS monitoring all network traffic
11.3 Access Controls
- MFA Required: All administrative access requires multi-factor authentication
- SSH Key Management: SSH keys stored in hardware security modules, no password authentication
- Role-Based Access: Employees access only systems required for their role
- Access Logging: All administrative access logged and audited
- Automated Revocation: Access automatically revoked when employees leave
12. Compliance and Standards
12.1 Security Standards Compliance
Atlas implements controls meeting industry security standards:
- OWASP Top 10: Protection against all OWASP Top 10 web vulnerabilities
- NIST Cybersecurity Framework: Alignment with NIST identify-protect-detect-respond-recover functions
- CIS Controls: Implementation of Critical Security Controls
- SANS Top 25: Addresses most dangerous software weaknesses
12.2 Regulatory Compliance
- GDPR: European data protection compliance
- CCPA: California consumer privacy compliance
- PIPEDA: Canadian personal information protection
- PCI DSS: Payment card industry standards for payment handling
13. Security Limitations and Honest Assessment
While Atlas employs security techniques exceeding industry standards, we acknowledge inherent limitations:
13.1 What We Cannot Guarantee
- Zero-Day Immunity: Previously unknown vulnerabilities may exist and be discovered
- Determined Adversary Protection: Sufficiently motivated attackers with resources may eventually bypass protections
- Perfect Hardware Detection: Sophisticated emulation or virtualization techniques may evade fingerprinting
- Cryptanalytic Resistance: Future advances in cryptanalysis may compromise current algorithms
- Supply Chain Security: Compromised third-party dependencies could introduce vulnerabilities
13.2 Historical Context
No software system—not even those developed by governments, billion-dollar companies, or world-leading security firms—remains uncompromised indefinitely. Every major software platform has been successfully attacked despite substantial security investment. Atlas aims to be significantly more difficult to attack than alternatives, but we cannot claim perfect security.
13.3 Commitment to Improvement
Atlas is committed to:
- Continuously identifying and patching vulnerabilities
- Adopting new security techniques as they emerge
- Maintaining transparent communication about security incidents
- Rewarding security researchers discovering vulnerabilities
- Regular security assessments and improvements
14. Contact and Resources
For security questions or to report vulnerabilities:
Security Team
Email: atlassolutionsnoreply@gmail.com
PGP Key: Available upon request
Response Time: Within 24 hours
Bug Bounty Program
Email: atlassolutionsnoreply@gmail.com
Website: https://atlassecurity.site/bug-bounty