MagiNet

Your best in Class WIFI and Network Performance

AI-powered professional network and Wi-Fi solutions for villas, mansions, and yachts deliver unmatched connectivity, reliability, and performance, ensuring seamless digital experiences for discerning owners.

Designed to meet the demands of luxury lifestyles, these systems combine cutting-edge technology with industrial-grade availability to provide uninterrupted access to the digital world.

That’s delivering your fastest streaming, surfing, conferencing, uploads, and downloads in every corner of your property and the world, as well as AI-powered cyber security resilience and high availability, enabling Magitech Next Generation services.

Satellite Uplinks up to 500 Mbps per second - Wireless Up and Download up to 1 GB per second - Internet Uplinks up to 10 GB per second - Backbone and Distribution Network up to 100 GB per second

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Satellite Uplinks up to 500 Mbps per second - Wireless Up and Download up to 1 GB per second - Internet Uplinks up to 10 GB per second - Backbone and Distribution Network up to 100 GB per second 〰️

A digital padlock symbolizing cybersecurity on a circuit board with glowing red lights.

MagiNet Fortress

Cloud-enabled Firewall and Security Fabric.

Enables high performance and maintains the highest security today and tomorrow for the user, requiring zero customer interaction, delivers a good feeling that the network is secure and comfortable to use every day.

Our MagiNet Fortress Solutions uses Cloud-supported security fabrics to provide a robust, adaptive defense mechanism for IoT networks, addressing evolving threats while maintaining operational efficiency. These systems ensure resilience and performance in high-density environments by integrating centralized intelligence, automation, and scalable architectures. Below are the key security advantages:

Unified Threat Detection and Response

1. Real-Time Anomaly Identification

  • AI-driven behavioral analytics (e.g., Fortinet Security Fabric) continuously monitor IoT device traffic, identifying deviations like unusual data bursts or unauthorized command sequences. Machine learning models trained on global threat feeds detect zero-day exploits targeting industrial sensors or medical devices.

  • Automated containment isolates compromised nodes within milliseconds, preventing lateral movement in smart factories or critical infrastructure.

2. Dynamic Micro-Segmentation

  • Zero Trust policies enforce strict access controls, segmenting IoT devices (e.g., hospital ventilators, smart meters) into isolated virtual networks. Unauthorized cross-communication is blocked, even if credentials are stolen.

  • Context-aware rules adjust permissions based on device location, time, and behavior—e.g., restricting warehouse robots to operational zones during shifts.

Scalable Encryption and Data Integrity

1. End-to-End Encryption

  • Quantum-resistant protocols (AES-256, ChaCha20) secure data in transit between edge devices and cloud platforms, mitigating man-in-the-middle attacks on autonomous vehicles or grid sensors.

  • Hardware-backed TPM modules authenticate firmware updates, preventing malicious code injection in oil rigs or agricultural IoT systems.

2. Secure Over-the-Air (OTA) Updates

  • Cryptographically signed patches deploy automatically via cloud orchestration, addressing vulnerabilities in legacy devices like surveillance cameras without downtime.

Cloud-Native Resilience and Redundancy

1. Geo-Distributed Threat Intelligence

  • Global security grids (e.g., Zscaler) synchronize threat data across 150+ cloud nodes, enabling real-time blocking of phishing campaigns targeting IoT management interfaces.

  • Automatic failover routes traffic through alternate regions during DDoS attacks on smart city grids, maintaining sub-100 ms latency.

2. Immutable Audit Trails

  • Blockchain-secured logs record all device interactions, providing tamper-proof evidence for compliance audits in regulated sectors like energy or finance.

Performance-Optimized Security

1. Hardware-Accelerated Inspection

  • FPGA-based threat processing in edge gateways inspects 40 Gbps IoT data streams without bottlenecking real-time applications like drone fleets or AR-guided maintenance.

  • Containerized security services (e.g., Azure Defender) scale dynamically during peak loads, such as stadium IoT deployments handling 100,000+ concurrent connections.

2. Low-Latency Policy Enforcement

  • In-line decryption engines reduce TLS inspection overhead to <5 μs, ensuring uninterrupted video feeds from autonomous security robots.

Proactive Threat Hunting

1. Predictive Vulnerability Management

  • Asset inventory dashboards map all IoT endpoints (IP cameras, HVAC controllers), prioritizing patches for devices with CVSS scores >8..

  • Simulated attack scenarios test network responses to ransomware targeting building automation systems, refining incident playbooks.

2. Cross-Platform Integration

  • API-driven Fabric Connectors sync firewall rules with SIEM tools like Splunk, correlating IoT events with enterprise security alerts.

By converging cloud scalability with military-grade encryption and AI-driven automation, modern security fabrics enable IoT networks to withstand advanced persistent threats (APTs) while supporting mission-critical operations like remote surgery or autonomous logistics. This architecture ensures compliance with frameworks like NIST IoT Cybersecurity Guidelines and IEC 62443, future-proofing investments in smart infrastructure.

Close-up of server racks with illuminated network equipment and cables, featuring glowing lights in a data center.

MagiNet CCU

Enabling Over the Air Updates and Full Remote Management for your complete network.

MagiNet CCU uses a cloud-managed networking system, leveraging advanced redundancies, battery backups, and full redundant ring topologies, which offers unparalleled reliability, scalability, and operational security. Here are the key advantages of such a system:

Advantages of Cloud-Managed Networking

1. Centralized Management and Real-Time Insights

  • Cloud-based controllers provide a unified interface for managing wired and wireless networks, enabling real-time monitoring, troubleshooting, and configuration changes from anywhere.

  • Administrators can deploy updates or adjust network policies without downtime, ensuring seamless operations even during maintenance windows.

2. Scalability and Cost Efficiency

  • Cloud-managed systems dynamically allocate resources based on demand, allowing businesses to scale up or down instantly without investing in additional hardware.

  • The pay-as-you-go model eliminates upfront capital expenses while optimizing costs based on actual usage.

3. Enhanced Security and Compliance

  • Built-in zero-trust architecture ensures secure access to the network by authenticating every device and user.

  • Advanced encryption (e.g., TLS 1.2 or higher) protects data in transit, while micro-segmentation isolates sensitive traffic to prevent lateral attacks.

4. High Availability and Resilience

  • Cloud providers leverage geographically dispersed data centers with automated failover mechanisms to ensure 99.99% uptime or higher.

  • Redundancy features like load balancing and backup paths keep the network operational even during localized outages or cyberattacks.

Benefits of Full Redundant Ring Topologies

1. Uninterrupted Operations with Sub-50 ms Failover

  • Dual-ring designs ensure that if one path fails, traffic is instantly rerouted through the secondary ring, maintaining continuous service for critical applications like VoIP, video conferencing, and industrial automation.

  • Active-active configurations distribute traffic across both rings for optimal performance and reduced latency.

2. Scalability for Complex Deployments

  • Modular ring architectures allow seamless expansion without disrupting existing operations, supporting thousands of connected devices in large-scale environments.

Power Redundancy for Maximum Uptime

1. Battery Backup Systems for Power Outages

  • Dual UPS systems with high-capacity batteries ensure uninterrupted power supply during outages, protecting against downtime caused by grid failures.

  • Intelligent power management prioritizes critical components like core routers and controllers to extend runtime during prolonged outages.

2. Integration with Renewable Energy Sources

  • Hybrid setups combining solar panels or wind turbines with traditional backup generators provide sustainable power solutions while ensuring operational continuity in off-grid locations.

Operational Security and Future-Proofing

1. Automated Threat Detection and Response

  • AI-driven analytics identify anomalies in real time, enabling proactive responses to potential threats before they impact operations.

2. Simplified Maintenance and Upgrades

  • Virtualized environments allow updates to be deployed without affecting live systems, reducing downtime and ensuring continuous availability.

By combining the scalability of cloud management with the robustness of redundant topologies and power resilience mechanisms, this system ensures a highly secure, scalable, and reliable infrastructure capable of supporting mission-critical applications in any environment.

Futuristic digital interface with glowing blue and orange lights, resembling a holographic control panel, set against a blurred cityscape background.

MagiNet WIFI

High-speed WIFI for thousands of connected devices in your property.

We design and build based on the project requirements with certified and professional brands only.

How MagiNet WIFI works:

A LAN backhaul-based WiFi mesh network leveraging the 6 GHz band and unified controllers offers significant advantages for high-density environments requiring stability, speed, and interference resilience. Below are the key benefits, supported by advanced infrastructure planning principles:

Advantages of LAN Backhaul with 6 GHz WiFi

1. Unmatched Stability and Bandwidth

  • Wired backhaul eliminates wireless interference between nodes, ensuring dedicated bandwidth for data-heavy applications like 4K streaming, AR/VR, and industrial IoT sensors.

  • 6 GHz band provides ultra-wide 320 MHz channels, doubling throughput compared to WiFi 6E and enabling multi-gigabit speeds (up to 46 Gbps). This minimizes congestion in environments with thousands of devices.

2. Reduced Latency for Real-Time Applications

  • Wired connections slash latency to <1 ms, critical for phone conferences, security systems, and automated processes requiring instant reactions.

  • Multi-Link Operation (MLO) in WiFi 7 allows simultaneous data transmission over 5 GHz and 6 GHz bands, further reducing lag.

3. Interference Mitigation

  • Unified controllers (e.g., Cisco CleanAir, NETGEAR Orbi) automatically detect and map interference sources (e.g., microwaves, rogue APs), adjusting channels and power settings in real time.

  • 6 GHz’s cleaner spectrum avoids legacy device congestion, reserving the band for high-priority traffic like mesh backhaul and low-latency applications.

Benefits of Sophisticated WiFi/LAN Planning

1. Seamless Roaming and Handovers

  • Centralized controllers enforce 802.11r/k/v protocols, enabling sub-50 ms handovers between access points (APs) for uninterrupted video calls and IoT device connectivity.

  • Predictive RF planning tools optimize AP placement to eliminate dead zones in complex layouts.

2. Scalability for High-Density Deployments

  • Load balancing distributes thousands of sensors and devices across APs, preventing bottlenecks.

  • Dynamic frequency selection in 6 GHz avoids overlapping channels, supporting up to 59 non-interfering 20 MHz channels for scalable deployments.

3. Enhanced Security and QoS

  • Unified controllers enforce WPA3 encryption, segment traffic via VLANs, and isolate compromised devices to protect critical infrastructure.

  • AI-driven QoS prioritizes traffic for conferencing tools, security feeds, and industrial automation, ensuring consistent performance.

Key Infrastructure Design Best Practices

  • Wired Backhaul + 6 GHz Mesh: Deploy fiber or Cat6/7 cabling for backbone links, reserving 6 GHz for wireless backhaul where wiring is impractical.

  • Proactive Interference Monitoring: Use controllers with spectral analysis to identify and neutralize interference sources (e.g., Bluetooth, Zigbee).

  • High-Density AP Placement: Strategically position triband APs (2.4/5/6 GHz) to handle >100 devices per node, leveraging beamforming for targeted coverage.

  • Downwards compatibility to 2,4 GHZ

  • Z-Wave Integration

This combination of robust hardware, intelligent controllers, and meticulous planning ensures enterprise-grade reliability for environments demanding zero downtime and millisecond-level responsiveness.

Internet speed test results dashboard showing download and upload speeds, graph of network activity, and various application icons.

Ready to elevate your Mansion to enjoy next-generation network coverage everywhere?

Reach out and find out how we exceed most demanding customer expectations, and select MagiNet.

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