Wednesday, 19 August 2026

Reliability throughout the whole enterprise.

From outer perimeter to inner rack: for a data centre operator, risk rarely comes down to a single system or department

For a data centre operator, risk rarely comes down to a single system or department. It can begin with a cut fence, an intruder approaching a substation, an alarm no one trusted enough to investigate, or a rack that ran hot overnight. The cause may be different, but the consequence is often the same: an interruption to operations that can be costly. More than half of significant data centre outages can now cost a company over $100,000,(€86k) and roughly one in five exceed $1 million (861k), according to the Uptime Institute's 2024 Annual Outage Analysis.

The challenge is that the industry tends to sell protection the way it is organized internally: one function at a time, with perimeter security pitched to the Security Director, substation protection routed to facilities, and rack thermal monitoring and inspection left to reliability engineering. A VP of Operations, however, is responsible for uptime across the entire site, making the fence and the rack part of the same operational risk conversation.

Reliability, not another security line item.
Perimeter detection, electrical monitoring, alarm management, and rack inspections may fall under different departments, but they all serve the same basic purpose: identifying problems early enough to prevent them from affecting operations.

A perimeter breach, for example, often begins as a security event. If the intruder reaches a substation or other critical equipment, it quickly becomes an uptime issue. Security may investigate the incident, but the operational impact will be measured by lost capacity, service disruption, and recovery time. Bringing these controls into a single program gives operators a more complete view of the risk they manage. It also helps reduce the gaps that appear when each department plans, purchases, and operates its systems independently.

Following the risk from the fence inward.
At the outer edge of a property, data centres can stretch for miles of dark, lightly staffed perimeter. Much of that darkness is by design. Many sites are built as low-light facilities to avoid adding light pollution to the surrounding area, which is good for neighboring communities but leaves conventional cameras with little to work with. Thermal imaging removes that dependency, reading the heat signature of a person or vehicle in complete darkness. Detecting movement early matters because the farther a potential threat travels into the site, the less time an operator has to assess and respond.

The solution can be a multilayered security approach, beginning with a radar system such as the Flir R-190/R-290 detecting movement as it approaches or crosses the perimeter. It works in concert with both the bi-spectral FH-Series Ai thermal/visible cameras and the bi-spectral Elara DX-Series thermal/visible PTZ cameras to verify the activity and continue tracking it. Instead of relying on a single sensor or an isolated alarm, the operator receives multiple sources of information that help determine whether the event requires action.

Those detections can feed into Flir Latitude VMS, giving the control room a common view of the event. Flir Nexus® connects sensors and systems so that information gathered at the fence reaches the person responding.

Moving deeper into the property, the substation is one of the most important points of exposure. The equipment feeding power to the data halls is essential to the operation, yet it is often less visible than the systems inside the building.

Fixed radiometric thermal cameras can continuously monitor transformers, electrical connections, and other energized equipment for abnormal temperature changes. While technicians could miss a loose or deteriorating connection during a visual inspection, an infrared camera detects the heat it produces well before the equipment fails. That allows the operations team to investigate and make repairs during a planned maintenance window rather than responding after an outage.

Inside the data hall, the available response time becomes even shorter. GPU-dense racks can draw several times the power of the traditional 8 to 12 kW rack, creating more heat in a smaller space. Under those conditions, a cooling issue or component failure that developed over several days could escalate within minutes.

Periodic handheld inspections also play an important role, as they allow maintenance teams to view assets from multiple angles and distances. Fixed thermal monitoring provides visibility between scheduled surveys, while handheld tools with route-based inspection capabilities, such as the Flir i65 and Assetlink software, support more detailed inspections, analysis, and documentation when a potential issue is identified. Onboard tools such as reference imaging ensure these handheld inspections result in repeatable, trackable thermal data, making it easier to identify changes over time and support repair decisions. When combined with safety equipment such as infrared windows, maintenance teams can help maintain uptime by safely inspecting energized electrical equipment.

Two budgets, one operational problem/
Security and operations are often managed separately, leading different teams to purchase thermal technology for different purposes. The security department may invest in thermal cameras for perimeter protection, while the operations team deploys thermal equipment for electrical inspections, early fire detection, and rack monitoring. Although these purchases are often made independently, they address closely related risks.

Simply put: the purchases come from different budgets because the organization is divided that way. The risk itself is not.

Grand View Research valued the data centre physical security market at $1.87 billion (€1.61b) in 2023 and projects it will reach $4.83 billion (€4.14) by 2030. Mordor Intelligence projects the thermal imaging systems market will grow from $5.78 billion (€4.78b) in 2025 to $8.71 billion (€7.7b) by 2031.

These may appear to be separate markets, but operators experience them as parts of the same uptime challenge. Both are intended to reveal developing issues, provide enough information to act, and prevent a larger disruption.


A more complete reliability picture.

Compliance requirements are also moving operators toward a more coordinated approach. The 2023 edition of NFPA 70B placed greater emphasis on documented electrical maintenance and thermographic inspection. Inspection records, identified deficiencies, and corrective actions are increasingly part of the facility’s broader maintenance and audit process rather than being managed informally or in isolation.

None of this means operators need to replace systems that already work. It means they should view perimeter protection, power monitoring, interior surveillance, rack conditions, and compliance as part of a single reliability program.

Flir supports that full path, from radar and thermal detection at the perimeter to radiometric monitoring of critical equipment inside the facility. By connecting those capabilities, operators gain a clearer view of risk across the site and more time to respond before a condition escalates into an outage.

For most data centre operators, the first step is not another purchase order. It is a change in perspective: seeing the path from the outer fence to the inner rack as one continuous reliability environment.


@flir @mepaxIntPR @UptimeInstitute @GrandViewInc @MordorIntel @NFPA #PAuto #Datacentres #security #Safety

Tuesday, 18 August 2026

Servo drives.

Combine with IEC 61131-3 PLC and remote I/O system for completely integrated automation.

Applied Motion Products' newly launched DIN rail mountable AK series drives, now available through McLennan, offer a choice of open-loop stepper, closed-loop stepper, or full closed-loop servo motion control in a compact feature-rich package in combination with NEMA 11 to NEMA 34 frame motors operating from 24–48 VDC power. The AK series supports EtherCAT, EtherNet/IP, CANopen, and Modbus communication interface options. Maximum precision and performance is assured with a battery-less 17-bit multi-turn absolute encoder that eliminates the need for homing routines and external position sensors, simplifying machine design. Launched at the same time as the AK StepSERVO series, AMP’s MCA6 PLC and MET2 I/O system combine to offer complete machine integration for applications ranging from compact bench-top equipment to larger industrial machinery.

The AK drive series operates in combination with AMP’s Q-Programming software for basic to advanced motion and machine control whilst the new Stepper Suite II software covers USB-C setup for online or offline parameter configuration with an integrated oscilloscope providing real-time monitoring, and a smart fault diagnosis feature that includes corrective actions that can minimize commissioning and downtime. Further features of the AK StepSERVO series include a secondary encoder input that can be used with a load located linear encoder to ensure maximum accuracy for gantry- and linear stage-based mechanical systems. A SIL3 certified STO (Safe Torque Off) provides machine safety compliance, and the drive includes built-in brake control functionality.

Fieldbus interface options include EtherCAT and EtherNet/IP. EtherCAT includes CoE (CAN over EtherCAT) and FoE (File over EtherCAT) with distributed clocks for ultra-precise multi-axis motion and sensor synchronisation. EtherNet/IP supports 14+ add-on instructions for application-specific control integration. Both versions include a compliment of 6-in and 3-out configurable I/O.

In addition, the two new companion platforms launched by AMP offer maximum flexibility for machine builders and automation engineers: the MCA6 Motion PLC is a compact controller that combines machine and motion control from an ARM-based processor with support for PLCopen and IEC 61131-3 programming standards with a device capacity of up to 64 EtherCAT motion axes and 128 other EtherCAT devices. The MET2 I/O system, also EtherCAT-based, is a modular distributed platform that supports up to 32 digital, analogue and temperature sensor modules. Together, these three platforms are designed to operate as an integrated stack; the MCA6 for centralised control, the MET2 for distributed I/O, and the AK Series for multi-axis motion that is capable of advanced motion and machine control including electronic cam, interpolation, synchronisation, and robotic functions - all three systems are unified through a common software environment and shared industrial networking protocol.


@ampmotion @mepaxIntPR #mclennan #PAuto 

Edge Ai for transportation, AMR, and industrial automation applications.

The DeviceEdge AIE-VN34/44 and AIE-VO24/34 is Aetina’s first palm-sized in-vehicle edge Ai systems, powered by NVIDIA Jetson Orin NX and NVIDIA Jetson Orin Nano modules. Delivering up to 100 TOPS of Ai performance and supporting up to four GMSL2 cameras in an ultra-compact, rugged form factor, the new systems are ready for mass production and target smart transportation, autonomous mobile robots (AMR), and industrial automation deployments where space and reliability are equally critical.

James Ho, Manager of Edge Computing Product Division at Aetina remarks: “As real-time, multi-camera perception becomes the sensing layer for Ai agents operating in vehicles, AMRs, and industrial equipment, customers need edge compute that is rugged enough for the field and ready for mass production from day one, Aetina’s palm-sized in-vehicle edge Ai systems bring four-camera GMSL2 support, automotive-grade certification, and NVIDIA Elite Partner-backed BSP support together in one rugged multi-vision platform, helping customers simplify integration and accelerate the deployment of intelligent vision at the edge.”

Compact compute for multi-aamera Ai vision.
As AI-powered vision systems become increasingly essential across smart cities, intelligent transportation, and industrial automation, real-time processing of high-quality, multi-camera video streams within space-constrained environments remains a persistent challenge. The AIE-VN34/44 and AIE-VO24/34 address this directly: powered by NVIDIA Jetson Orin NX (8GB/16GB) and NVIDIA Jetson Orin Nano with Super Mode (4GB/8GB), the systems deliver up to 100 TOPS and 67 TOPS of Ai performance respectively, packed into a palm-sized 136.3 x 132 x 63 mm chassis. Each system features four GMSL2 (Fakra-Z) ports, enabling long-distance, low-latency multi-camera streaming, real-time Ai inference, and 360-degree environmental perception for surround-view monitoring, blind-spot detection, and situational awareness.

To accelerate system integration, the AIE-VN34/44 and AIE-VO24/34 can be flexibly expanded with Aetina validated GMSL2 adapter boards and camera modules, which support with plug-and-play driver-ready for long-distance image transmission of up to 15 meters. This bundle offering brings together camera sensing, high-speed visual data transmission, and NVIDIA Jetson Orin–powered edge inference, helping customers simplify system integration, shorten development and validation cycles, and achieve highly scalable, customizable Ai deployment.


Rugged, fanless design for continuous field operation.

Engineered for demanding mobile and industrial applications, the AIE-VN34/44 and AIE-VO24/34 pair rugged reliability with flexible connectivity. Both systems have passed MIL-STD-810H shock and vibration testing and carry E-Mark (E24) certification for automotive electronic equipment, streamlining integration into global vehicle markets. A fanless architecture supports stable, throttle-free operation from -25°C to +55°C, while a 9–36V DC wide-voltage input and integrated Ignition Power Control protect against voltage fluctuations and enable safe startup and shutdown. Isolated CAN FD and GPIO/RS-232 interfaces connect vehicle signals, controllers, sensors, and industrial peripherals, complemented by Gigabit Ethernet (GbE), USB 3.2, HDMI, M.2 M-Key storage, and optional M.2 E-Key wireless expansion.

Scaling Edge Ai Vision Across Transportation, Robotics, and Industrial Automation The convergence of V2X and edge computing continues to drive demand for compact, rugged in-vehicle computing platforms that capable of processing multi-camera vision data locally and in real time. The AIE-VN34/44 and AIE-VO24/34 turn visual data into actionable intelligence for Ai agents and autonomous systems, supporting surround-view monitoring and blind-spot detection for commercial vehicles, obstacle avoidance and path planning for AMRs, real-time defect inspection on production lines, and people tracking and security monitoring across smart retail and building environments.


@AetinaCorp @mepaxIntPR #PAuto #Ai #Transportation

Testbed in Korea.

Korea Testing & Research Institute (KTR), a Korean testing and certification institute, has adopted Anritsu's Radio Communication Test Station MT8000A. The MT8000A supports the FR3 frequency range that is expected to be used in future 6G systems. The adoption enables KTR to establish an FR3 evaluation environment in addition to 4G and 5G.

FR3 is a promising candidate frequency range for next-generation 6G mobile systems, and practical implementation from the research stage requires evaluation environments that take standardisation and certification requirements into account. Against this backdrop, KTR has introduced the solution to support activities ranging from research and development to certification and standardisation verification.

"As a leading testing and certification institute, KTR has proactively established an FR3 testbed to support development of 6G technologies," said a KTR spokesperson. " We will continue to provide reliable testing and evaluation capabilities that help researchers and industry prepare for future 6G standardization and commercialization."

KTR will promote evaluation of FR3 technologies and technical verification toward 6G standardisation in the future, while also exploring future applications of the platform, including 6G signaling tests. In addition, by combining the MT8000A with Anritsu’s automated test software, KTR aims to improve the efficiency and sophistication of research, development, and evaluation activities in the FR3 frequency band.

Through its support for these initiatives, Anritsu helps accelerate development and validation of FR3-related technologies toward 6G standardisation, thereby contributing to development of a technical foundation for future practical implementation of 6G.


@Anritsu @AnritsuEMEA @NapierPR   #KTR #TandM #Communications #Korea

Continuous water quality data.

Around 10 years of continuous water quality data has been generated as a result of a stipulation in a water abstraction licence on the River Medway in Kent (GB). Installed and managed by Meteor Communications, a network of water quality monitoring stations is being used by Southern Water to protect the River Medway and manage related water infrastructure, such as the Bewl Water reservoir.

“Our abstraction licence includes strict water quality requirements at specific locations; not just specifying measurement limits, but also detailing precise sets of conditions that initiate upstream flow management,” explains Tim Taylor, Water Resources Policy & Regulation Manager at Southern Water. “Meteor configured the monitoring stations to monitor the required parameters and to automatically create the necessary alerts. The data are therefore used for two purposes - to demonstrate compliance, and to inform the ongoing management of flow rates in the Medway and its tributaries.”

Background.
Flow rates on the River Medway are collaboratively managed by the Environment Agency and others using a complex system of barriers, locks, and sluices to balance drinking water supply, flood risk, navigation, and ecological health. This includes the management of releases from Bewl Water reservoir by Southern Water.

Southern Water and its legacy authorities hold multiple historical and continuously renewed abstraction licences for the River Medway system. The primary authorisations for the major River Medway and Bewl Water pump-storage scheme were originally established following the Medway Water Act 1968 and the construction of Bewl Water reservoir, which was completed in 1975.

Bewl Water contributes to the management of River Medway flow rates through a seasonal abstraction and release cycle. During wet winter months, surplus water is pumped out of the river into storage, and in summer months, water is released back into the river network to support drinking water supplies. There is an all year-round release from the reservoir to maintain baseline flows. The distance between Bewl Water and the Medway abstraction point represents river water travel time of approximately one day.

Abstraction licence conditions.
In 2013 the Environment Agency published the Medway Abstraction Licensing Strategy using information gathered by a Catchment Abstraction Management Strategy (CAMS) process. The strategy was designed to protect the ecology of water resources through all seasons, and during all conditions from low flow to high flow. This strategy led to the implementation of a complex set of conditions surrounding Southern Water’s River Medway abstraction licence.

Around 10 years ago Southern Water approached Meteor Communications and asked them to adapt their remote water quality monitoring solution to meet the specific requirements of the abstraction licence.

Fundamentally, the licence conditions were designed to ensure that dissolved oxygen (DO) levels in the River Medway did not drop below acceptable levels as a result of the abstraction that is necessary for the ongoing provision of treated drinking water. However, in addition to DO, the licence also required the continuous monitoring of pH, temperature, conductivity, ammonium, turbidity and chlorophyll.

While these parameters are useful indicators of water quality, DO measurements were deemed to be of greatest value because of the relationship between DO and river flow, and because lowered DO levels can have particularly harmful ecological effects.

A network of at least four of Meteor’s ESNET (environmental sensor network) systems monitor water quality at strategic locations downstream with (almost) real-time data continuously fed to the MeteorCloud® platform, which provides secure data access with visualisation, analysis and alerts that have been configured to meet the abstraction licence requirements.

Extracting value from water quality data.
Southern Water’s engineers are able to access live water quality data at any time, and from anywhere, either by logging into MeteorCloud or accessing the data via an API. “The security of the Meteor platform is critically important,” Tim Taylor explains. “This means that the Environment Agency is able to view the same data as us, and as a secure platform they are able to use the data in a court of law if necessary.”

By programming the algorithmic requirements of the abstraction licence into the MeteorCloud platform, Meteor ensured that timely notifications are automatically issued to initiate action to prevent deterioration of dissolved oxygen levels for example.

Collecting remote water quality data.
ESNET systems are available in either a kiosk-based format for permanent bankside deployment, or as a portable system. Both systems employ a multiparameter sonde loaded with the required sensors, and can run on solar power. A telemetry connection allows users to view real-time data remotely. Water quality monitoring sondes can be deployed directly in the river or, in locations where it is necessary to protect the sonde, it can be located in a flow-through chamber through which sample water is pumped.

In the last 10 years, Southern Water has employed up to 12 ESNET systems in the Medway catchment, three of these are estuarine and six are freshwater, with an additional borehole water level logger. However, only 4 of the ESNETs contribute to the abstraction licence calculations. Portable ESNET systems are utilised because the sondes can be safely deployed directly in the water, and because portability brings flexibility in the choice of monitoring location.

Meteor’s customers can either purchase ESNET systems and rent access to MeteorCloud, or rent the entire service – known as Water Quality as a Service (WQaaS). Southern Water’s Medway catchment systems are run on a WQaaS contract under which Meteor staff install, operate, maintain and calibrate the remote equipment.

Explaining the importance of the calibration and service programme, Jack Hambridge from Meteor says: “Sondes typically require service and calibration every 4-6 weeks, so we have invested heavily in a bespoke calibration laboratory and a team of field engineers. This means that we are able to service large numbers of sondes, ensuring that data are accurate and that the ESNET systems are maintained in optimal condition.”

The Medway catchment ESNETs have recently been upgraded to ESNET3, the next-generation version, specifically engineered with enhanced power management, updated hardware, and a more compact footprint to meet stricter environmental regulations.

10 years of continuous water quality data.
Summarising the performance of the Medway monitoring network, Tim Taylor says: “We have been delighted with the service delivered by Meteor Communications. Data access is simple and secure, and the algorithms that Meteor created to meet the abstraction licence have worked very well. As a result, we have been able to stay compliant with the conditions in our Abstraction Licence, and the river’s ecology has been protected.”

Looking forward.
With climate change prompting more intense rainfall and greater risks of drought and floods, river levels can change very quickly. The need for continuous monitoring and alert systems is therefore growing, and with ten years of data, the network in the Medway catchment has clearly shown how such systems can protect water ecology.

Summarising Tim Taylor says: “The abstraction licence stipulates eight water quality parameters, but the alert system and associated water management initiatives are all associated with dissolved oxygen levels. While these parameters are useful indicators of water quality, DO measurements were deemed to be of greatest value because they are a key condition in the Abstraction Licence that impacts the volume of water released from Bewl Reservoir and subsequently abstracted for public water supply.”


@MeteorComms  @SouthernWater @_Enviro_News #Environmental #Water #Britain


Protection from lightening, surges and voltage spikes.

The LSP Series is a new line of multi-port Power-over-Ethernet (PoE) surge protection devices from Antaira Technologies. Engineered to safeguard industrial networks, the LSP Series shields connected PoE devices from lightning strikes, electrical surges, and transient voltage spikes. The LSP Series is IP30-rated, DIN-rail or wall mountable, and built to perform from -40°F to 167°F (-40°C to 75°C). It delivers zero-compromise protection, even in the harshest industrial environments.

"Our new LSP Series safeguards PoE devices up to 100W, ensuring operational continuity for the critical systems that depend on them," said Joe Cook, General Manager, Antaira Technologies. "As PoE power budgets continue to grow and network speeds of up to 10GbE become increasingly common, that level of protection isn't optional anymore — it's foundational."

Protection scales with the network.
The series is available in two configurations: a dual-port model LSP-0200X-bt-100-T for two data lines and a four-port model LSP-0400X-bt-100-T for four data lines. Both models deliver 100W 802.3bt PoE++ pass-through per data line and support data speeds from 10/100M up to 10GbE.

Compared to single-port units, the LSP-0200X-bt-100-T and LSP-0400X-bt-100-T offer integrators and IT teams a lower cost-per-port and simpler installation through their multi-port design. This makes the Antaira LSP Series a compelling option for large-scale deployments across utility sites, large warehouses, transportation hubs, and industrial plants.

Target applications.
Modern industrial PoE infrastructures sit exposed on the front lines, where a single transient surge current can shutdown critical communication systems in an instant. The Antaira LSP Series stands guard against that threat, engineered to absorb and redirect up to 10kA of surge energy away from sensitive PoE-powered devices before damage happens, not after. Built for the environments where failure isn't an option, the LSP Series keeps your network running when it matters most:

  • Security and surveillance: IP cameras at building perimeters, parking lots, traffic intersections, campuses, and other outdoor installations.
  • Intelligent transportation systems (ITS): Traffic cameras, license plate recognition (LPR) systems, roadside communication devices, and digital message signs.
  • Wireless networking: Outdoor Wi-Fi access points, wireless bridges, mesh network nodes, and small-cell infrastructure.
  • Industrial automation: Outdoor Ethernet switches, remote I/O cabinets, process monitoring equipment, and SCADA networks.
  • Smart city infrastructure: Environmental sensors, smart lighting controllers, emergency call boxes, public Wi-Fi, and IoT gateways.
  • Building automation: PoE-powered access control systems, intercoms, IP speakers, and outdoor building management devices.
  • Energy and utilities: Substation communications, solar monitoring systems, EV charging communications, and remote telemetry equipment.
  • Transportation hubs: Airports, seaports, rail stations, and transit facilities with mission-critical PoE-connected devices.

@AntairaTech @OConnell_PR #PAuto #Safety #PoE

Monday, 17 August 2026

Optimising thermal management strategy.

Molex has announced a strategic investment in CAEPlus, Inc., an early-stage company focused on the development of active liquid cooling technology designed to help data centres manage increasing heat loads driven by AI and High-Performance Computing (HPC) workloads. This investment advances Molex’s Data Center Thermal Management strategy by accelerating the innovation of CAEPlus’ BoundaryCool™ platform, a compact, active cooling architecture that addresses next gen GPU/ASIC thermal challenges.

“Advanced thermal management is becoming a critical enabler for the next wave of compute performance,” said Jairo Guerrero, VP and GM, Copper Solutions Business, Molex. “Our strategic investment in CAEPlus reflects Molex’s commitment to supporting innovations in liquid cooling while working with emerging technology leaders to help customers address rapidly evolving AI and compute-intensive data center requirements.”

The strategic collaboration will support continued advancements across the BoundaryCool platform, engineered to deliver significantly higher heat transfer performance and greater reductions in CPU/GPU/TPU chip temperatures compared to passive cold plate solutions while remaining compatible with legacy data centre architectures.

“CAEPlus was founded to address the rapid pace of change in data center cooling requirements by enabling an entirely new class of active liquid cooling solutions,” said Milad Bashirzadeh, founder and CEO, CAEPlus, Inc. “In addition to its investment, Molex brings deep engineering expertise and a strong track record of helping scale innovative technologies. We are excited to work together in advancing our proprietary cooling technology and meet unrelenting industry requirements for higher levels of performance and efficiency.”

The addition of CAEPlus technology to Molex’s comprehensive thermal management portfolio offers data centre customers a broader range of solutions engineered to address the most demanding computing requirements. As part of the agreement, Molex retains exclusive licensing to apply CAEPlus technology to the Molex portfolio of pluggable I/O solutions. 


@MolexConnectors  @NapierPR #CAEPlus #PAuto