In today’s complex network environments, maintaining comprehensive visibility is essential for effective monitoring and security. Network TAPs (Test Access Points) and Network Packet Brokers (NPBs) are critical to this effort.
Continue readingWiFi Clocks: The evolution of synchronized time display
In the past, maintaining synchronized time across an organization or industrial facility was a difficult task. Organizations often relied on manual clocks or standalone systems that needed to be reset regularly to keep accurate time. With advancements in technology, these methods became outdated.
Two of the clocks used in the past were mechanical clocks and radio-controlled clocks. Mechanical clocks were used to achieve synchronized time, often connected to a master clock via cables, making the system reliable but cumbersome and requiring regular maintenance. Radio-controlled clocks emerged, offering greater accuracy by receiving time signals from a central station, though their effectiveness was limited in areas with weak or inconsistent radio signals.
The Rise of WiFi Clocks
As wireless communication and network connectivity improved, WiFi clocks began to take hold. These clocks sync with internet time servers, meaning they can automatically adjust to daylight savings time, account for leap years, and remain accurate without requiring manual intervention. The time servers they connect to can either local to the network or Internet time servers like NIST or Network Time Foundation
WiFi clocks use NTP (Network Time Protocol) or PTP (Precision Time Protocol) to maintain precision across different devices and locations. Unlike traditional radio-controlled clocks, WiFi clocks don’t require external antennas or reliance on a standalone radio signal. They simply connect to an organization’s existing WiFi network, making them incredibly easy to deploy.
Available in both analog and digital styles, WiFi clocks are increasingly being used across diverse applications and industries due to their accuracy, ease of use, and versatility. Here are a few notable use cases:
- Corporate Environments: In large corporate settings, keeping synchronized time across multiple departments or offices is essential for scheduling, meeting coordination, and timekeeping. WiFi clocks ensure consistency across all locations, reducing errors and ensuring that everyone is operating on the same timeline.
- Healthcare Facilities: Hospitals, clinics, and medical centers rely on precise timekeeping to coordinate patient care, medication administration, and surgical procedures. WiFi clocks help ensure that these time-sensitive activities are accurately synchronized across departments.
- Industrial and Manufacturing: In factories and production lines, synchronized time is crucial for coordinating shifts, tracking operations, and preventing costly mistakes. WiFi clocks provide an efficient solution by ensuring that equipment, machinery, and personnel all operate on a unified timeline.
- Public Infrastructure: For public institutions like transportation hubs (airports, train stations) and government buildings, synchronized clocks help maintain smooth operations. WiFi clocks eliminate the need for manual time adjustments and help prevent delays.
Advantages of WiFi Clocks
- Accuracy and Precision: WiFi clocks connect to time servers that provide highly accurate time synchronization. By using NTP or PTP, they ensure that the clocks are synchronized to a global standard, reducing the risk of errors.WiFi clocks can also often connect to multiple time servers, allowing for seamless fallback to a backup or secondary server if connection is long to the primary.
- Scalability: One of the main advantages of WiFi clocks is scalability. You can deploy them across large networks, such as multi-floor offices or sprawling industrial facilities, and they will all be synchronized without the need for complex cabling or individual time settings.
- Easy Installation and Maintenance: Setting up WiFi clocks is relatively straightforward compared to traditional timekeeping methods. With no physical cables or external signals required, they can be installed and maintained with minimal effort.
- Flexibility and Integration: Many WiFi clocks are compatible with modern IoT systems, allowing them to integrate seamlessly into smart building or industrial automation systems. Additionally, they can be customized with features such as large digital displays, custom time formats, and more.
- Cost-Effective: Over time, WiFi clocks can save money by eliminating the need for manual calibration, physical maintenance, and additional infrastructure.
As industries move towards smart environments and Industry 4.0, the role of synchronized time will continue to grow. WiFi clocks will play a key role in enabling real-time data exchange, ensuring that machines, devices, and systems operate seamlessly together. They also provide a foundation for high-precision applications, including data center synchronization, financial transactions, and critical infrastructure management.
Safran SecureSync: A Vital Tool for Ensuring Public Safety in a Connected World
In today’s interconnected world, public safety depends on reliable and secure communication, coordination, and operational precision. From emergency response teams to critical infrastructure operators, organizations must rely on systems that are both secure and accurate. Safran’s SecureSync is a powerful solution designed to meet these needs, offering a blend of precise time synchronization, reliable security, and unparalleled reliability. Here’s why the SecureSync GPS/GNSS -based Network Time Server is a vital tool for enhancing public safety.
The Importance of Time Synchronization
Accurate timing is crucial in various scenarios to maintain synchronization, improve decision-making, and enhance overall effectiveness. SecureSync’s precise timing capabilities ensure that all connected systems and devices operate in harmony, minimizing errors and enhancing situational awareness across public safety operations.
1. Emergency Response Coordination
During large-scale emergencies, first responders—including police, fire, and medical teams—must work in seamless coordination. Precise time-stamping of communications and data logs ensures synchronization across all parties, enabling faster and more effective decision-making during critical situations.
2. Critical Infrastructure Protection
Utilities such as power grids, water supplies, and transportation systems depend on synchronized operations to remain functional and resilient. Timing discrepancies can result in outages, inefficiencies, or vulnerabilities that jeopardize public safety.
3. Event Reconstruction
Following an incident, accurate time-stamped data plays a vital role in forensic analysis, determining the sequence of events, and implementing preventative measures to avoid future occurrences.
SecureSync’s precise timing capabilities ensure that all connected systems and devices operate in harmony, minimizing errors and enhancing situational awareness across public safety operations.
Regulatory Compliance
Many public safety organizations must meet strict timing and security standards. SecureSync is designed to ensure compliance and reliability, helping agencies avoid penalties, maintain operational integrity, and build public trust while supporting long-term system performance.
NERC CIP Standards
For power utilities, SecureSync supports compliance with the North American Electric Reliability Corporation (NERC) Critical Infrastructure Protection standards, safeguarding the reliability of essential services.
Canadian Data Security Requirements
For organizations handling sensitive information, including law enforcement agencies, systems must align with applicable federal and provincial regulations, such as the Personal Information Protection and Electronic Documents Act (PIPEDA) and provincial privacy laws. These requirements ensure the secure handling, storage, and access of sensitive information.
Alignment with Global Standards:
While Canadian-specific regulations apply, many organizations also align with global frameworks such as ISO/IEC 27001 (Information Security Management Systems) to ensure comprehensive security practices.
Enhancing Resilience
Resilience is key to public safety, ensuring critical operations stay functional under challenging conditions. SecureSync enhances system resilience, helping public safety organizations maintain reliability and deliver essential services during adversity.
Redundant Architectures
With redundant power supplies and timing sources, SecureSync ensures continuous operation, even during component failures.
High Availability
The system’s reliable design minimizes downtime, enabling uninterrupted operation during emergencies or disruptions.
SecureSync addresses the critical need for secure, accurate, and synchronized systems, helping organizations tackle public safety challenges. From real-time coordination during emergencies to protecting vital infrastructure and ensuring compliance, it showcases how innovation drives resilience and reliability.
Telnet Networks proudly supports organizations in achieving their security and synchronization goals with solutions like SecureSync. Contact us today for a consultation or a tailored quote to meet your specific operational needs.
NDR an Indispensable Piece of an Overall Security Operation Strategy.
Network Detection and Response (NDR) is a cybersecurity approach that focuses on identifying and mitigating malicious activities in real-time.
So, what is Network Detection and Response (NDR)? Network Detection and Response uses non-signature-based techniques (as opposed to the signatures used by anti-virus/anti-malware) such as machine learning to spot anomalous and suspicious traffic that could point to a cyberattack. NDR solutions deeply parse raw network traffic and flow data to build models that define what traffic is normal on the network and can then spot deviations which prompt alerts.
Continue readingNetwork Visibility vs Security: Key Differences Explained
Explore the crucial differences between network visibility and security, and learn how they work together to enhance network management and protection.
Continue readingNetwork Packet Brokers at the Inflection Point
The global network packet broker market hit USD $910 Million in 2024 and, according to Cognitive Market Research, is expected to grow at more than 7% annually through 2032. This growth is driven by the increasing demand for network visibility solutions that enhance security and performance across complex network infrastructures.
To support that growing demand and growth, key players like Cubro, Keysight Technologies, and Garland Technology introduced innovative solutions to enhance network visibility, security, and performance throughout 2024.
Cubro’s Level Up on Security
In 2024, Cubro Network Visibility received the ISO 27001:2022 certification, an acknowledgment of Cubro’s robust information security management systems and dedication to protecting customers from threats and ensuring that Cubro continues to lead in innovation and best practices in the industry. This certification followed the introduction of a next-generation network packet broker utilizing the latest P4 programmable processors in late 2023.
Garland Technology’s TradeUp Program
Garland Technology has introduced the TAP-IT & TradeUp Exchange program, allowing organizations to trade in outdated network TAPs and packet brokers for advanced solutions. This initiative ensures complete packet visibility by delivering a full platform of network TAPs, inline bypass, and packet broker products. Garland’s purpose-built NPBs include features such as aggregation, filtering, load balancing, deduplication, time stamping, and packet slicing, providing flexible and scalable solutions for future on-demand growth with excellent ROI.
Keysight Technologies’ Enhancements
In 2024, Keysight Technologies introduced the Vision Edge 400P (E400P), a next-generation network packet broker (NPB). Scalable from 10G to 400G The Vision 400 Series Network Packet Brokers received the prestigious 2024 Global New Product Innovation Award from Frost & Sullivan and achieves the highest port density for 400G in a 1RU form factor.
The developments in 2024 by Cubro, Keysight Technologies, and Garland Technology highlight the dynamic nature of the network packet broker market. As organizations continue to prioritize network visibility and security, these innovations play a crucial role in meeting the evolving challenges of modern network environments.
2025 Packet Broker Outlook
The global Network Packet Broker industry is on a trajectory of significant growth and innovation in 2025 driven by the increasing complexity of network infrastructures and the escalating demand for enhanced network visibility and security.
In 2025, leading Packet Broker OEMs are expected to focus on transformational features and developments in the following areas:
- Integration Between On-Premise And Cloud Environments – The proliferation of cloud-based applications necessitates advanced NPB solutions to manage and monitor data traffic effectively, ensuring seamless integration between on-premise and cloud
- Efficient Data Management And Network Optimization – The surge in internet multimedia content and web applications is contributing to higher data volumes, prompting organizations to invest in efficient data management and network optimization solutions
- Integration of AI and Machine Learning – Deploying AI/ML to enhance real-time data analysis, automate network management tasks, and improve threat detection capabilities
Organizations are projected to continue investing heavily in advanced NPB solutions. These investments are expected to focus on enhancing network performance, security, and visibility and aligning with the dynamic landscape of digital transformation.