Video surveillance systems have become prime targets for cyberattacks. A record 48,185 CVEs were published in 2025—a 22% increase over 2024—bringing the cumulative total above 300,000 vulnerabilities. That’s approximately 130 new vulnerabilities disclosed every single day. Every IP camera, edge device, and network connection represents a potential entry point for bad actors.

For security integrators, cybersecurity is no longer optional—it’s a fundamental responsibility. Here are the three critical areas where integrators can build improved cybersecurity into every video surveillance project.

What Are the Most Critical Edge Device Security Measures for Video Surveillance?

IP cameras and edge devices are the most vulnerable points in any surveillance network. Every component of a video security system—from cameras and sensors to edge computing devices—represents a potential entry point for cybercriminals. Integrators must treat each device as a potential breach point and implement rigorous security protocols.

Essential Edge Device Security Controls

Eliminate default credentials immediately. Change every factory password on installation. Default passwords are one of the most prevalent security vulnerabilities in IP cameras. Use strong, unique passwords for each device—a single compromised device cannot endanger the entire network when passwords are properly diversified.

Maintain current firmware on all devices. Security and surveillance products need to be brought up to the same level of security present in other devices deployed across the network. Manufacturers regularly release updates to address security flaws discovered through penetration testing and vulnerability research. Establish regular update schedules and use manufacturer management platforms to push firmware updates in bulk across deployments.

Encrypt all data transmission. Unencrypted data sent between cameras and the VMS can be intercepted, potentially exposing sensitive information or providing a foothold for further attacks. Enable HTTPS and other secure protocols on every camera. Most modern IP cameras support encrypted transmission—there is no valid reason to leave data in the clear.

Implement consistent configurations across installations. When several technicians are configuring devices for an installation, each technician can inadvertently establish slightly different settings, degrading the ability for devices to be properly protected. Use standardized configuration templates and manufacturer-provided device management platforms to ensure uniform security posture across all deployments.

How Should Security Integrators Architect Video Surveillance Networks for Defense in Depth?

The strongest perimeter security fails if the network itself is wide open. Modern video surveillance equipment is susceptible to hacking and can potentially serve as gateways for cybercriminals to infiltrate broader IT infrastructure. Integrators must architect surveillance networks with multiple layers of defense.

Network Segmentation Best Practices

Segment surveillance networks from corporate infrastructure. If your security camera system is connected to your main network without separation, you are creating a doorway for hackers to enter your main network via your surveillance system. Use VLANs (Virtual Local Area Networks) or physically separate networks when possible. While some sophisticated IT environments require integration with corporate networks, proper segmentation ensures compromised cameras cannot access sensitive business systems.

Implement granular access controls with multi-factor authentication. Multi-factor authentication and granular user permissions can limit who can view feeds or make system changes. Never use shared administrative credentials—employee turnover through attrition or role changes creates unexpected security holes when passwords are shared among multiple administrators.

Deploy robust firewalls and continuous intrusion detection. Network infrastructure that supports digital video surveillance systems is a prime target for cybercriminals. Implement robust firewalls and intrusion detection systems to prevent unauthorized access. Monitor for anomalies continuously—every unusual pattern in network traffic or user behavior could signal a breach in progress.

Adopt zero trust architecture principles. Zero trust practices validate every transaction between devices and people, with the US White House mandating federal compliance with zero trust architecture by 2024. This security model assumes no user or device should be trusted by default, implementing continuous verification, least privilege access, and micro-segmentation throughout the surveillance network.

What Cybersecurity Training Do Security Integrators and Their Clients Need?

The most sophisticated technical controls collapse when humans make mistakes. Ensuring that everyone understands and is trained on security best practices—such as using strong passwords and recognizing potential threats—helps prevent human errors that can lead to security breaches. Integrators must educate both their own teams and their clients.

Integrator Team Training Requirements

Obtain industry-recognized certifications. Certifications such as the SIA Security Industry Cybersecurity Certification (SICC) provide essential knowledge and can help create a foundation for secure system installation. Make team training mandatory, not optional. Stay current with manufacturer product training—specific VMS platforms and camera models have unique security features that require specialized knowledge.

Build internal cybersecurity competency. Training and awareness are critical for integrators. Beyond certifications, establish regular security briefings covering emerging threats, new attack vectors targeting video surveillance systems, and lessons learned from security incidents in the industry.

End User Education and Support Responsibilities

Educate clients on their security role. End-user training plays a pivotal role in ensuring that clients and their staff are well-versed in cybersecurity best practices pertinent to video surveillance systems. Your customers need to understand the risks, their responsibilities for password hygiene, and when to report suspicious activity. End users often underestimate cybersecurity risks until an incident occurs.

Establish clear patch management responsibilities in contracts. Clarity is needed regarding software patch management responsibilities. The integrator may handle this work the first year after installation, but who does it after that? This responsibility must be discussed and determined with the end customer and worked into a service agreement. Without clear contractual language, critical security updates may be neglected.

Position lifecycle management as essential service. IP surveillance devices are not simply installed and left in the field until they are no longer operational—they need to be maintained and when necessary replaced by products with newer technologies. System owners often have lifecycle plans in place driven by heightened cybersecurity awareness and understanding that new products have advanced encryption and better protection mechanisms. Integrators should provide ongoing support as a core service offering, not an afterthought.

How Does Arxys VideoX V5 Deliver Enterprise-Grade Server Security for Video Surveillance?

While integrators must secure the perimeter and train their teams, the server infrastructure running the Video Management System is where enterprise-grade cybersecurity either succeeds or fails. Arxys VideoX V5 servers deliver hardware-based security that eliminates performance trade-offs and security gaps—at zero additional cost.

TCG 2.0 Trusted Platform Module: Hardware Root of Trust

Every Arxys VideoX V5 server includes an integrated TCG 2.0 compliant Trusted Platform Module (TPM). The TPM is a dedicated cryptographic processor that stores encryption keys, digital certificates, and platform measurements in tamper-resistant hardware. This creates a hardware root of trust that cannot be bypassed by malware or operating system compromises.

What this means for integrators: BitLocker encryption keys are protected in dedicated hardware, not software. Even if an attacker gains access to the server or removes the storage drives, they cannot decrypt the data without the TPM. The server’s boot integrity is measured and verified before the OS loads, preventing bootkits and rootkits from executing. This is FIPS 140-2 Level 2 validated protection, meeting federal and healthcare sector compliance requirements.

AMD Zen 5 Security Architecture: Defense at the Silicon Level

Arxys VideoX V5 servers built on AMD EPYC 9005-series processors leverage the Zen 5 microarchitecture’s integrated security features. These include:

• AMD Secure Encrypted Virtualization (SEV): Encrypts virtual machine memory to protect against hypervisor-based attacks and unauthorized access from other VMs or the host system. Critical for virtualized VMS deployments.
• Secure Memory Encryption (SME): Encrypts all system memory with a key generated by the CPU, protecting against physical memory attacks including cold boot attacks and DMA (Direct Memory Access) attacks.
• Shadow Stack Protection: Hardware-enforced control flow integrity that prevents return-oriented programming (ROP) and call-oriented programming (COP) exploits—advanced attack techniques used to bypass traditional security measures.
• Platform Security Processor (PSP): A dedicated ARM-based security processor that runs independently of the main CPU, managing secure boot, firmware validation, and cryptographic key generation. The PSP operates below the operating system level where software exploits cannot reach.

What this means for integrators: Security is enforced at the processor level, below the operating system. Attackers cannot disable or circumvent these protections through software exploits. The PSP validates firmware integrity on every boot, ensuring the platform has not been compromised. This is defense in depth implemented in silicon, not just software configuration.

Windows Server 2022/2025 BitLocker: Full-Disk Encryption Without Performance Impact

Arxys VideoX V5 servers ship ready for Windows Server BitLocker deployment. BitLocker provides AES 128-bit or 256-bit full-volume encryption for all storage—OS volumes, data volumes, and removable media. With TPM 2.0 and AMD Zen 5 hardware acceleration:

• Encryption operations are offloaded to dedicated silicon, eliminating CPU overhead. Recording streams, database queries, and VMS operations run at native speed even with full-disk encryption enabled.
• Automatic unlock with TPM binding means the server boots normally without manual key entry, while still providing cryptographic protection against theft or unauthorized physical access.
• Network unlock capabilities allow administrators to reboot servers remotely in data center environments without physical presence—critical for distributed deployments and lights-out facilities.

What this means for integrators: You can deploy full data-at-rest encryption without sizing servers for encryption overhead. There is no performance penalty. There is no additional licensing cost beyond Windows Server. The security is built into the hardware platform, not bolted on afterward.

Nearly Zero Impact: Performance at Full Encryption

Traditional software-based encryption can impose 10-30% performance penalties on disk I/O and CPU utilization. Arxys VideoX V5 servers eliminate this trade-off entirely:

• AES-NI (Advanced Encryption Standard New Instructions) hardware acceleration in AMD EPYC processors handles encryption/decryption at memory bandwidth speeds—several gigabytes per second with negligible CPU consumption
• NVMe SSDs with self-encrypting drive (SED) capabilities offload encryption to the drive controller, processing encryption in parallel with data transfer
• TPM 2.0 key storage and cryptographic operations happen in dedicated silicon, not on the main CPU cores

The result: Full data-at-rest encryption with measured performance impact of less than 2% on real-world VMS workloads. Integrators can spec servers for the camera count and retention requirements without adding overhead for security. Protection and performance are not competing priorities.

Standards Compliance Out of the Box

Arxys VideoX V5 servers meet or exceed current cybersecurity standards required for government, healthcare, and critical infrastructure deployments:

• FIPS 140-2 Level 2 validated TPM modules for cryptographic operations
• Common Criteria EAL4+ certified Windows Server platforms
• TCG 2.0 compliance for measured boot and hardware attestation
• NIST 800-53 and 800-171 alignment for federal and defense sector projects
• HIPAA/HITECH encryption requirements for healthcare environments

No custom configuration required. No additional validation cost. The platform is certified and ready for deployment in regulated environments. For integrators pursuing government contracts or healthcare deployments, compliance documentation is already complete.

Frequently Asked Questions About Video Surveillance Cybersecurity

The Bottom Line for Security Integrators

Cybersecurity in video surveillance requires action at three levels: securing edge devices, architecting defense-in-depth networks, and training the human layer. These are your responsibilities as an integrator. Master these fundamentals to differentiate your services and protect your clients from the growing threat landscape.

At the server level, Arxys handles it for you. TCG 2.0 TPM, AMD Zen 5 silicon-level security, and full BitLocker support are standard on every VideoX V5 server. No upcharges. No performance trade-offs. No compromises.

Deliver cybersecurity that works—without asking your customers to choose between protection and performance.

Related Resources for Security Integrators

• SIA Security Industry Cybersecurity Certification (SICC)
• CISA Known Exploited Vulnerabilities Catalog
• NIST National Vulnerability Database
• Arxys VideoX V5 Server Specifications (internal link)
• Video Surveillance Solutions Overview (internal link)