Wednesday, 27 May 2026

Fridge failures: why temperature monitoring needs to move beyond the clipboard.

Chris Potts, Marketing Director at ANT Telecom explores the risks of relying on manual fridge and freezer monitoring, from missed faults and human error to compliance issues and stock loss, and explains how automated temperature monitoring processes can provide faster alerts, stronger audit trails and better protection for temperature-sensitive goods.

Chris Potts, ANT Telecom
For any organisation storing chilled or frozen goods, temperature control is not a back-office task. It directly affects safety, compliance, stock protection and, in some sectors, the quality of research or patient care. Food businesses, for example, have clear responsibilities around chilled storage. The British Food Standards Agency states that chilled food must be kept at 8°C or below, with fridges ideally operating at 5°C or below. Temperature checks and accurate records are a core part of showing due diligence.

However, many businesses still rely on manual checks, basic thermometers and paper-based logs. While these methods can work in simple environments, they leave gaps. A fridge may fail overnight. A freezer door may be left open between checks. A power cut may go unnoticed until stock has already been compromised. For organisations holding high-value or sensitive goods, those gaps can quickly become expensive.

Why manual monitoring is a thing of the past.
The problem with manual temperature checks is that they depend on someone being available and remembering to take the reading. If this is done then the next step is to record it correctly. If an issue does occur they then need to react to it in a timely manner. In a busy workplace, this process is very easily forgotten or disrupted.

Of course, there are solutions to this. A thermometer with an audible alarm is a popular solution, and can help - but only if someone is close enough to hear it. This doesn’t, however, solve the record-keeping burden as staff still need to write down readings, maintain logs and provide evidence during audits or inspections.

Manual monitoring essentially creates three common risks. The first is a delayed response. If a fault happens outside working hours, the alarm may not be acted upon until the next day. The second is human error, with checks missed or recorded incorrectly. The third is limited visibility, especially for businesses managing multiple fridges, freezers or sites. These risks may be manageable for smaller operations. But for larger organisations, or those storing high-value food, pharmaceuticals, samples or other temperature-sensitive goods, they can become a serious operational weakness.

The risk of getting it wrong.
There are many risks for businesses if they get temperature monitoring wrong, some of which carry serious consequences. There is not just a visible cost, but a reputational cost that some businesses may never recover from. If temperature control creates a food safety risk for example then bacteria could spread and make customers ill. For healthcare businesses and pharmaceutical companies incorrect storage conditions can compromise medicines, samples or research materials, which could cost people their lives. This is why businesses need a clear process for monitoring temperatures, escalating alerts and recording the action taken.

Moving from manual to continuous monitoring.
One way to navigate this problem effectively is to install an automated temperature monitoring system to ensure continuous monitoring 24/7. This works by inserting wireless sensors in the fridge and freezers to constantly measure temperatures around the clock.

If a temperature moves outside of its designed threshold, alerts can be sent to the right people by phone call, SMS or email. Just as importantly, temperature data can be recorded automatically, creating a digital audit trail that supports compliance and removes much of the manual administration. This is perhaps most valuable when the business is out of hours. Automated alerts give teams the chance to move stock, check the appliance, close a door, investigate a power issue or call out maintenance before goods are lost.

For multi-site businesses, cloud-based monitoring can also provide a central view of appliances across different locations. This helps teams identify recurring issues, compare performance and spot equipment that may need attention.

Choosing the right approach.
As with everything in life, there is no one size fits all system. And businesses will need to invest in systems that best fit their organisation. So, when selecting which technology works best for a business, it is recommended to consider which technology best suits the operating environment. As well as this, businesses should factor in the value of goods being stored, the number of appliances needed, whether there are any compliance requirements and the resources available to manage checks.

The questions to ask are: How often are temperatures checked? Who is responsible for recording them? What happens if an alarm sounds overnight? How quickly could staff respond to a breach? Are records easy to access during an audit? How much stock could be lost if an appliance failed unnoticed?

The answers often reveal whether automated monitoring would provide better protection than a manual check. Alarm management is another important factor. Systems should allow thresholds and escalation routes to be set in a way that reflects real working practices. Too many unnecessary alerts can lead to alarm fatigue, where staff begin to ignore notifications. Too few alerts can leave the business exposed. The balance matters. Scalability also needs consideration. A business monitoring one fridge today may need to monitor multiple appliances, locations or environmental conditions in future. Selecting an approach that can grow with the organisation avoids unnecessary replacement costs later.

Summary. Basic thermometers, manual checks and logs certainly have a place in smaller lower risk environments. But when storage requirements become more complex and businesses face greater pressure to prove compliance these processes will always struggle to keep pace. Automated temperature monitoring is not about replacing responsibility. It is about giving teams better information, faster alerts and more reliable records. For any organisation storing perishable, sensitive or high-value goods, the question is not simply whether the fridge is cold enough during a scheduled check, it is whether the business would know quickly enough if it wasn’t.


@ANT_Telecom @foodgov #Food

Custom industrial computing.

Impulse Embedded Ltd., supports OEMs, system integrators and technical buyers with a broad range of standard and custom computing systems for demanding industrial applications.

Industrial computing projects often involve more than selecting a standard computer platform. Customers may need to account for processing performance, I/O, environmental conditions, installation constraints, operating system support, supply chain continuity, product lifecycle expectations and long-term technical support.

Impulse Embedded helps customers move from early research and platform selection through to system definition, integration and deployment. The company provides pre-sales consultation, system specification, design and engineering support, integration and manufacturing services, lifecycle technical support, supply chain management and deployment assistance.

A broad range of platforms for demanding environments.
Impulse Embedded supplies industrial computer platforms for a wide variety of performance, environmental and installation requirements.

Their range includes rackmount computers, industrial rackmount servers and rackmount GPU servers for higher-performance applications where expandability, processing power or server-grade capability are important. DIN-rail industrial computers and fanless industrial computers support space-constrained industrial installations where compact design, low maintenance and reliable operation are priorities.

The company also offers ATEX Zone 2 industrial computers for hazardous areas, wide temperature industrial computers for more extreme operating conditions, tower computers for applications requiring industrial-grade performance in a traditional format, and IEC 61850-3/IEEE 1613 rackmount systems for power and substation environments. Application-focused ranges also support sectors including substation, marine, railway and in-vehicle computing. 

Custom systems built around application needs.
Alongside configurable off-the-shelf platforms, Impulse Embedded develops custom industrial computing systems for projects with specific technical, mechanical or environmental requirements.

This can include systems with tailored expansion options, enclosure formats, thermal characteristics, mounting requirements, software images, branding, certification considerations or lifecycle planning. By engineering systems around the application, Impulse Embedded helps customers create platforms aligned with the environment they will operate in and the role they need to perform.

The company also provides custom touchscreen, HMI and panel PC solutions where usability, display performance, installation method and wider system integration are central to the specification. These systems can be tailored around screen size, touch technology, front panel design, ingress protection, mounting arrangement, processor platform and connectivity.

Industrial computing capability for complex projects.
The company gives customers access to both configurable industrial computers and more specialised solutions developed around exact project requirements. This helps customers compare standard and custom options, understand where engineering input may be needed, and identify the most appropriate route for their application.

By combining broad industrial computing ranges with custom system design, integration and lifecycle support, Impulse Embedded helps customers specify and deploy computing solutions for demanding industrial, embedded and edge computing environments.


@ImpulseEmbedded  @EU_Commission @proactivefleet  #PAuto #Computing

The future of automated storage.

A system that combines speed, safety, and scalability.

With e-commerce booming and customers expecting faster deliveries, Jungheinrich recognised that warehouses need a smarter, fully automated way to process goods while making the most of limited space. This insight led to the development of an innovative solution that redefines automated storage: the PowerCube, an automated compact container storage system.
“Our customers need a way to use limited space efficiently while meeting growing demands for faster order processing,” explains Carlos de Almeida.

Meet the PowerCube.

The PowerCube was designed with one clear goal—to improve efficiency. By maximising storage density and accelerating order processing, it helps warehouses handle more goods in less space and time.

At the heart of the system is Jungheinrich’s own Warehouse Control System (WCS), which controls automated shuttles via Ethernet communication to ensure they move quickly and safely within a high-density storage grid. These shuttles operate on the entire bottom level in two dimensions, leveraging the full vertical space above the system for maximum storage capacity.

Benefits:

  • Unique use of space: Up to four times higher storage density compared to conventional shelving.
  • High system height: Vertical storage up to 12 meters.
  • Scalable design: Flexible throughput, container capacity, and shuttle count.
  • Powerful performance: Each shuttle can carry two containers at once, up to 50 kg per container.
  • Easy integration: Short assembly times and simple IT connections—no need for floor milling.

“We wanted a system that combines speed, safety, and scalability. PowerCube delivers all three,” says Carlos.

Turning to HMS Networks for Reliable Connectivity.
Keeping shuttles moving safely in two dimensions is no easy task—it demands reliable and deterministic wireless communication. Any delay or disruption stops a shuttle, blocks access to storage areas, and can halt the entire line, leading to costly delays. Cables were not an option because the shuttles need complete freedom to move across the bottom level without restrictions. Recognising the need for reliable connectivity, Jungheinrich turned to HMS Networks. As Carlos puts it, “we’re experts in logistics, not networking, so we contacted HMS for help.”

The following robust wireless setup recommended:

• Anybus Wireless Access Points installed throughout the installation for full signal coverage. Dual-band segmentation using 5 GHz for communication with tablets and maintenance devices, and 2.4 GHz for shuttle control and safety communication.
• Anybus Wireless Bridge II, with its integrated antenna and compact IP67 form factor, for a space-saving installation on each shuttle.
• Point-to-multipoint architecture allows shuttles to roam freely between APs with continuous Ethernet connectivity wherever they are in the system.
• IP67-rated hardware ensures durability in harsh environments, including cold storage where condensation is a risk.

“We really appreciated HMS’ support and guidance. The Bridges and Access Points are working well, but it wasn’t just about the products. Their Wireless & Infrastructure Implementation Assistance service made a big difference, helping us overcome the challenges of deploying wireless connectivity in a dense, metallic structure. Using their expertise and analysis tools, HMS designed the best layout for access points to ensure reliable performance in every installation. In some cases, we even asked HMS to join us at our customer’s warehouse to perform a site survey and validate signal coverage,” adds Carlos.

First field deployments. The PowerCube is now entering real-world applications, proving its efficiency and reliability in multiple installations. “It’s great to see PowerCube out in the field solving issues. Fastbolt, for example, wanted faster order processing and better space utilisation. And that’s exactly what the PowerCube is providing,” enthuses Carlos de Almeida.

With the PowerCube, Jungheinrich is setting a new benchmark for automated storage systems. And with HMS providing the wireless backbone that keeps shuttles moving, this partnership is paving the way for smarter, more efficient warehouses worldwide.

Jungheinrich has plans to scale the PowerCube to larger deployment systems with increasing storage surface and numbers of shuttles, a move that will require advanced wireless design and continuous network monitoring. At the same time, meeting cybersecurity requirements and complying with regulations such as RED, CRA, and NIS2, along with optimising safety architecture for the upcoming EU Machinery Regulations (2027), will be critical.

“We’re really pleased with the collaboration with HMS. It’s helped us achieve the required robust connectivity, and as we expand and meet cybersecurity and safety requirements, our partnership with HMS will become even more valuable. This is only the start!” concludes Carlos.


@JungheinrichSA @hmsnetworks @HMSAnybus @mepaxIntPR #PAuto #Connectivity

Tuesday, 26 May 2026

Embedded edge computing in Industrial PC.

Physical AI continuously integrates and analyses multiple inputs to enable real-time process and energy optimisation, safety monitoring, computer vision, asset performance, anomaly detection for quality inspection and predictive maintenance directly on the factory floor and at remote sites.

A collaboration with SiMa.ai a leader in Physical AI, delivers advanced AI capabilities for real-time data analysis on Emerson's industrial PCs in the harshest industrial field environments, on the factory floor and at remote sites.

The global industrial AI market reached $43.6 billion (€37.49b) (in 2024, and according to IOT Analytics, is anticipated to grow at a CAGR of 23% through 2030 to reach $153.9 billion (€132.34b)*. A key part of this growth will be AI technology at the industrial edge, empowering companies to analyse data and physically intervene instantly – detecting problems, optimising quality, taking corrective action and engineering autonomous operations – all without relying on cloud connectivity. Workloads that previously required offline engineering studies, dedicated analytics servers or roundtrips to the cloud now run alongside core processes, turning the IPC into an always-on industrial intelligence platform.

“As operations teams leverage Physical AI at the edge, they move beyond simple monitoring to closed-loop autonomy where they can adjust processes in real time – minimising product defects early in the production phase, reducing waste and increasing production efficiency,” said Krishna Rangasayee, SiMa.ai. chief executive officer.

SiMa.ai's MLSoC™ (Machine Learning System on Chip) provides the high-performance compute and industry-leading power efficiency necessary for Emerson's industrial PCs to support Physical AI workloads in real time. By maximising throughput while maintaining a low thermal footprint, the technology allows for faster decision-making and robust security, keeping sensitive proprietary data secure and on-premise across vital operations.

Benefits include:

  • Autonomous safety: Detect gas and liquid leaks, fire and smoke, unauthorised access and equipment anomalies in real time and in harsh environments where high-speed vision inspection has not been possible.
  • Increased productivity: Enjoy higher overall equipment effectiveness (OEE) by continuously improving uptime, performance and quality.
  • Enhanced reliability: Ensure operational continuity in mission-critical systems in remote locations (like upstream oil and gas or mines) with limited connectivity.
  • Improved product quality: Detect defects during inline product quality inspections during production and adjust parameters instantly to prevent waste.
  • Reduced CapEx: Identify equipment degradation before failures occur, minimising costly downtime and capital expenditures for new equipment.
  • Optimised resources: Continuously improve energy use, compressed air systems and material efficiency to reduce the need for human supervision in unsafe environments.
  • Air-gapped installations: Provide autonomous AI capabilities in critical air-gapped infrastructures using highly secure industrial control systems in industries like nuclear, power, water and other mission-critical installations.

“As organisations accelerate their journey toward autonomous operations, the ability to deploy intelligent capabilities at the edge with industrial-grade reliability and security is essential,” said Ram Krishnan, chief operating officer of Emerson. “Our partnership with SiMa.ai brings specialised AI computing technology to our industrial PCs that – combined with our integrated sensor technology, edge software and enterprise analytics – delivers the complete AI solution industrial organisations need not just to compete today, but also to thrive well into the future.”

Emerson is unique in offering an integrated, end-to-end technology stack for industrial AI across the enterprise – including smart sensors delivering performance data for AI analysis and on-device edge computing; an IIoT-ready SCADA/HMI platform and software that routes intelligence for quick interventions; and enterprise analytics for optimising operations.

Emerson’s industrial PCs with SiMa.ai technology deliver high performance and AI-accelerated computing power in a compact, ruggedised platform that can withstand high vibration and shock and temperatures ranging from -40 degrees Fahrenheit to 140 degrees Fahrenheit (-40 degrees to 70 degrees Celsius). They also enable practical AI applications across both discrete and process industries, including compressed air and energy usage optimisation, waste management, packaging, automotive machine efficiency, semiconductor manufacturing and oil and gas applications such as wellhead management and flare monitoring.


* 10 insights on how AI is transforming manufacturing (IOT Analytics)

@SiMa_Inc  @EmersonExchange @Emerson_News @EMR_Automation  @AnalyticsIoT @HHC_Lewis #PAuto 

Autonomous mobile robot advances.

New configurations give manufacturers more flexibility to match automation with their environment.

The configuration options for the OL-450S Autonomous Mobile Robot (AMR) have been expanded by OMRON Robotics and Safety Technologies. The company has added new mast accessories for cart and load carrier transport across production and intralogistics operations.

The OL-450S is now available in a standard no-mast configuration, with optional 1.2 m mid-mast and 1.6 m full-mast accessories. These options give manufacturers and system integrators greater flexibility in how the robot navigates and localises in facilities with varying ceiling heights, traffic patterns, layout constraints, and workflow requirements.

Three configurations. More ways to deploy.
The standard no-mast configuration keeps the OL-450S at its lowest profile while supporting safe, reliable cart transport in compact, height-constrained production spaces. It maintains route flexibility through narrow aisles, low door sections, overhead structures, and areas around fixed production equipment where added height could limit access.

The mid-mast configuration adds elevated scanning for highly dynamic, high-traffic environments where improved localisation and navigation are required, but vertical clearance remains limited. By raising the scanner above floor-level activity, it improves environmental visibility in shared spaces with moving carts, operators, and equipment while preserving access through elevators, doorways, and low overhead structures.

For larger, busier, or more visually complex operations, the full-mast configuration provides the highest scanning position to maximise environmental v6isibility and navigation robustness where height constraints are not a limiting factor. By referencing stable features higher in the environment, it strengthens navigation performance across dynamic production and intralogistics spaces.

Together, these configurations help manufacturers match the OL-450S to specific clearance, traffic, and workflow requirements. 

Production-ready by design.
The OL-450S is OMRON’s turnkey AMR solution for cart transport automation, combining a compact footprint, integrated lifting plate, and payload capacity up to 450 kg. With a 108 mm to 308 mm lift range, the robot can move under carts, lift them securely, and support existing material handling workflows with minimal infrastructure changes.

Across all configurations, omni-directional mobility helps the OL-450S move laterally, rotate in place, and maneuver efficiently through changing facility layouts. Natural feature navigation, onboard sensing, and wireless charging support dependable operation with less manual intervention.

For system integrators, the OL-450S also provides flexibility for application-specific cart designs. Its lifting plate can be raised, widened, or, within defined constraints, extended to support different payload dimensions and workflow needs while maintaining safety and stability.

“With the expanded OL 450S configurations, we’re giving customers the flexibility to match the robot to their environment instead of forcing the environment to adapt to the robot,” said Mona Fahimi, Global Product Manager for OL 450S at OMRON.

Centralised fleet management with FLOW Core.
Like all OMRON AMRs, the OL-450S is managed through FLOW Core, OMRON’s fleet management platform. FLOW Core gives users centralised control over robot traffic, task assignment, and fleet coordination from a single interface. The platform supports fleets of up to 100 mobile robots with different payload capacities, while real-time visibility into robot activity and workflows helps teams coordinate transport tasks across the facility.

Expanding how manufacturers deploy automation.
“Manufacturers need automation that works within the realities of their production environment,” said Justin King, Vice President of Product Management, Marketing, and Business Development. “With the expanded OL-450S lineup, they can apply the same cart transport platform across a wider range of facility conditions and workflow demands.” For more information, visit the OL-450S product page or contact OMRON to discuss your application and identify the right approach for your material handling goals.


@AdeptTechnology @OmronEurope #Robotics #PAuto

Contact image sensor series expansion.

Teledyne DALSA has expanded its AxCIS™ family of high-speed, high-resolution, fully integrated line scan imaging modules, now available in resolutions up to 1,800 dpi and lengths of up to 1,500 mm. These easy-to-use Contact Image Sensors (CIS) integrate sensors, lenses, and lighting into a single compact unit, offering a cost-effective inspection system for many demanding machine vision applications, including semiconductor wafer, battery, and print inspection.

Powered by Teledyne’s multiline CMOS image sensors, AxCIS delivers exceptional image quality with monochrome line rates of up to 80 kHz at a 14 µm pixel size, or resolutions up to 1,800 dpi. For color inspection, it outputs a native RGB 3-line rate of up to 60 kHz, at a 28 µm pixel size or 900 dpi resolution, so that flaws can be identified with unprecedented precision. AxCIS also offers a unique high dynamic range (HDR) capability to further improve defect detectability. Its unique sensor design covers the entire field of view without missing pixels, providing a 100% seamless image without interpolation, and the telecentric lens supports true metrology applications.

AxCIS has been designed for scalability across various fields of view using a single 24V power supply. With a small form factor and an IP60 dust proof optical path, AxCIS provides the flexibility to fit into systems with limited vertical clearance. Its SFP+ fibreoptic interface delivers high throughput data over standard low-cost, long-length cables with immunity to EMI radiation for harsh industrial environments.


@TeledyneDALSA  #PAuto

Five-nines uptime!

The rapid expansion of artificial intelligence (Ai) training workloads is reshaping the operational and reliability requirements of modern data centres, according to a new white paper from HBK.

Entitled “Ensuring Five-Nines Uptime in the Age of AI,” the paper examines how increasing compute intensity, power variability, and extended training cycles are driving a renewed focus on reliability as a critical factor in sustaining continuous data centre operations.

Traditional data centre architectures were largely designed to handle stable, predictable workloads. However, Ai training introduces dynamic operating conditions, including multi-megawatt power fluctuations within seconds and compute processes that can run continuously for weeks or months.

Under these conditions, even short disruptions can have significant consequences. A single power interruption or cooling failure may require entire training processes to restart, resulting in substantial losses of time and compute resources.

At the same time, financial exposure to downtime is increasing. Service level agreements (SLAs) tied to ultra-high availability frequently impose penalties when uptime falls below 99.999%, while industry data indicates that a notable share of outages exceed $1 million in total cost.

The white paper highlights a shift in how uptime is viewed across the sector. No longer purely an operational metric, availability is increasingly linked to financial performance and asset value. As data centre demand grows, operators that can combine strong operational availability with the ability to overcome constraints such as power access, permitting, and infrastructure limitations are positioned to achieve more resilient and higher-quality returns.


@HBMmeasurement @BruelKjaerUK @HBMPrenscia #PAuto #Datacentres