Frequently Asked Questions

An embedded PC is designed to perform a specific task inside a machine, device or industrial process. Unlike a regular desktop computer, it is built to be integrated into equipment and to run reliably for long periods of continuous operation. Embedded PCs come in many forms, such as Box PCs, Computer-On-Modules or Single-Board Computers, and may include features like industrial components, extended temperature support and fanless cooling, depending on the model.

For manufacturing and machine building, we supply embedded PC solutions that support long-term operation inside machines, cabinets and control systems. They can handle tasks such as motion control, data processing, vision inspection, HMI applications, safety modules and communication with PLCs or field devices. Depending on the needs of your application, we offer compact systems, models suitable for harsh environments or high-performance platforms for demanding automation. We can also tailor I/O, mounting options and temperature support so the system fits seamlessly into your machine design.

An industrial Panel PC combines the computing unit and display in a single device, saving space and simplifying installation. It reduces cabling, minimises the number of separate components and makes mounting or replacement much easier. Because everything is housed in one rugged enclosure, a Panel PC provides higher reliability in environments with vibration, dust or restricted airflow. This gives machine builders and operators a stable, consistent interface with faster commissioning.

Yes. Many of our embedded computers are designed for industrial environments where standard hardware would struggle. Depending on the model, they may support extended temperature ranges, fanless operation or vibration-resistant construction. Rugged housings help protect against dust and limited airflow. Together, these features contribute to stable long-term performance in challenging conditions.

Yes. We can tailor embedded computers to your technical and environmental requirements. This includes choosing the right I/O, memory, storage, mounting options and temperature capabilities. When needed, our specialists assemble and configure systems in-house so they integrate smoothly into your machine or automation setup.

Lead times vary depending on the specific model and the level of customisation required. Standard systems follow the manufacturer’s availability. Configurations that require assembly or adjustments may take longer, as we prepare them in-house to ensure correct installation. For customers with recurring demand, we can maintain stock of systems or components to reduce delivery times.

The lifespan of an embedded computer typically ranges from five to ten years, depending on the model, operating environment and workload. Many platforms use industrial components that remain available for extended periods, helping you maintain the same configuration across multiple systems. This reduces redesigns and supports long-term consistency within your production environment.

An industrial Panel PC is an all-in-one computer with a built-in touchscreen, designed for use in demanding environments. Because the display and computing hardware are integrated into a single enclosure, an industrial Panel PC is easy to install in machines, control stations or vehicles. Typical use cases include HMI applications, process control, production monitoring, warehouse operations and data acquisition. These systems are chosen for their stability, durability and long-term availability.

Yes, rugged Panel PCs are specifically designed for harsh industrial environments. These systems offer reinforced protection against shock, vibration, dust and moisture. Many rugged panel PCs include IP65 or higher front protection and can operate in extended temperature ranges, often from around -20°C up to +60°C. Because of these characteristics, rugged Panel PCs are suitable for industries such as oil and gas, maritime operations and outdoor installations.

Yes, you can customise the I/O ports or screen size of a Panel PC, depending on the hardware platform. Many Panel PC series offer multiple screen formats and optional interfaces such as serial ports, CAN bus, digital I/O or specialised industrial connectors. When further adjustments are needed, we can configure the system in-house to match your machine design or automation workflow.

Touch technologies available for industrial panel computers typically include capacitive multitouch and resistive touch. Capacitive touch is ideal for fast, accurate input and modern HMI designs, while resistive touch is better suited for environments where operators wear gloves or require pressure-based input. We advise on the touch technology that best fits your application and operating conditions.

Intemo distinguishes itself from other Panel PC suppliers through specialist guidance, long-term availability and in-house configuration capabilities. We work with leading industrial Panel PC manufacturers to offer platforms that align with the technical requirements of your application and environment. Customers benefit from personalised support, fast communication and over 35 years of experience in industrial automation. For recurring projects, we can also keep systems or key components in stock, helping to ensure consistent availability and faster delivery when needed.

The typical delivery time for a custom Panel PC depends on the required hardware platform and level of configuration. Standard models follow the manufacturer’s lead time. Customised systems may take longer because we prepare, assemble and validate the configuration in-house. For recurring projects, Intemo can stock systems or key components to ensure faster delivery in the future.

The difference between an industrial touch display for control systems and a standard consumer monitor lies in reliability and design purpose. An industrial touch display is built for continuous operation in demanding environments, where vibration, dust and temperature fluctuations are common. Consumer monitors are designed for office or home use and are not engineered for long-term stability in industrial conditions. As a result, an industrial touch display offers more predictable performance, longer availability and better resistance to environmental stress.

Industrial touch displays are available with different touch technologies, depending on the application. Capacitive touch is commonly used for precise, multitouch input. Resistive touch is better suited for operation with gloves or in environments where moisture or contamination may occur. The right touch technology depends on how operators interact with the system and the conditions in which the industrial touch display is used.

Yes, many industrial touch displays are suitable for outdoor or high-brightness environments. Depending on the model, displays can be selected with increased brightness levels for readability in daylight or direct sunlight. Rugged versions are also available for outdoor use, offering protection against moisture, temperature changes and other environmental influences commonly found in outdoor installations.

Industrial touch displays support various mounting options to fit different installation requirements. Common configurations include panel mounting for control cabinets, VESA mounting for arms or stands, and fixed mounting within machines or kiosks. This flexibility allows the industrial touchscreen monitor to be integrated cleanly into both new designs and existing systems.

Yes, customised display solutions for specific industrial applications are possible. Custom display solutions are realised in close cooperation with industrial display manufacturers, with Intemo guiding the selection and coordination process. Depending on the application, this can include choosing a different touch technology, adjusting brightness levels, selecting specific connectors or interface placement, or adding visual elements such as a logo. This approach ensures that the industrial touch display matches the technical and environmental requirements of your application.

The expected lifespan of an industrial touch display is significantly longer than that of consumer displays (5-10+ years), but it depends on the specific system and manufacturer. Industrial displays are designed for long-term use and often rely on components with extended availability programs. This helps support consistent configurations over multiple years, which is especially important for industrial projects that require stable hardware throughout their lifecycle.

Industrial displays are available with different certifications and protection classifications, depending on the model and application. IP ratings such as IP65 describe the level of protection against dust and water, rather than being a formal certification. Besides that, all industrial displays supplied by Intemo comply with CE requirements, which include conformity with EMC regulations. Depending on the selected platform, additional certifications may be available, such as automotive, medical, railway or military standards. We help ensure that the industrial touch display meets the relevant regulatory and environmental requirements for its intended use.

The difference between an industrial motherboard and a commercial motherboard lies mainly in design focus and lifecycle. An industrial motherboard is developed for long-term, continuous operation in industrial environments, whereas commercial motherboards are optimised for short product cycles and office or consumer use. Industrial motherboards use components with extended availability, support wider operating temperature ranges and are designed to remain stable under sustained workloads.

The supported form factors for embedded motherboards depend on the platform and application. Common options include compact formats such as Pico-ITX, 3.5-inch and Mini-ITX, as well as larger formats like Micro-ATX. These form factors allow embedded motherboards to be integrated into space-constrained systems or larger industrial enclosures, depending on system requirements.

Yes, industrial motherboards are designed for continuous 24/7 operation in demanding environments. They are built to operate reliably under conditions such as vibration, temperature fluctuations and long periods of sustained load. This makes them suitable for industrial applications where system downtime or unpredictable behaviour is not acceptable.

Long-term availability is a key characteristic of industrial PC motherboards. Many platforms follow extended lifecycle programmes, ensuring that the same motherboard configuration remains available for multiple years. This supports consistent production, simplifies maintenance and helps avoid redesigns during the operational lifetime of machines or systems.

For embedded applications, BIOS configuration and firmware settings play an important role. Depending on the motherboard platform, specific BIOS settings can be adjusted to support boot behaviour, power management or peripheral control. Intemo supports customers by selecting platforms that allow these configurations and by preparing systems in line with the application requirements.

The supported chipsets and processors depend on the motherboard series and manufacturer. Industrial motherboards are available with a wide range of platforms, from low-power processors for embedded control tasks to higher-performance CPUs for data-intensive applications. Selection is based on performance requirements, power consumption, thermal constraints and long-term availability expectations.

Yes, industrial motherboards are commonly integrated into existing OEM designs and custom-built systems. Their flexible I/O options, standardised form factors and long lifecycle support make them suitable for both new designs and upgrades of existing installations. Selecting the right motherboard helps ensure compatibility with current system architectures while supporting future maintenance and expansion.

A rugged tablet PC is a portable computing device designed for use in harsh industrial and mobile environments. Unlike a consumer-grade tablet, a rugged tablet PC features reinforced housing, sealed interfaces and components that withstand shock, vibration, dust, water and temperature extremes. Where consumer tablets are optimised for indoor and occasional use, rugged tablet PCs are built for daily operation in vehicles, field service and industrial workflows. This makes them far more reliable in environments where downtime is not acceptable.

Rugged computers are designed to meet industry-recognised durability standards. Many rugged tablets and rugged industrial PCs offer IP-rated protection, which indicates resistance to dust and water ingress. In addition, selected rugged devices comply with military-grade test standards such as MIL-STD-810, which cover resistance to shock, vibration and temperature extremes. Compliance depends on the specific platform and configuration. Intemo advises on the certifications that best match your operating environment.

Yes, rugged panel PCs can be suitable for vehicle integration and mobile environments when a fixed installation is required. These systems combine a display and computing hardware in a single enclosure and are often used as permanently mounted interfaces in vehicles or mobile equipment. When mobility is required beyond a fixed mounting position, a rugged tablet is usually the more appropriate solution. Intemo helps determine whether a rugged panel PC or a rugged tablet best fits the intended use case.

Rugged tablet computers typically support industrial operating systems such as Windows and Android. Operating system support depends on the selected hardware platform and processor architecture. Intemo advises on operating system compatibility to ensure the rugged tablet integrates smoothly with your existing software environment and supports long-term updates and security requirements.

Rugged computer solutions from Intemo are used across industries where mobility and reliability are essential. Typical sectors include logistics, public transport, emergency services, field service, maritime operations and industrial maintenance. These industries rely on rugged tablets and rugged industrial computers to support mobile workflows, vehicle-based operations and field applications under challenging environmental conditions.

The main benefit of using a rugged in-vehicle computer in emergency response vehicles is reliable operation under extreme conditions. Emergency vehicles are exposed to constant vibration, rapid temperature changes and unstable power during start stop cycles. Rugged in-vehicle computers for emergency services are designed to handle these conditions while remaining operational at all times.

Yes, in-vehicle computer systems can be integrated with dispatch and AVL software used in public transport. These systems are designed to support common operating systems and communication interfaces that are required for fleet management, vehicle tracking and scheduling platforms. Depending on the application, the in-vehicle computer can connect to backend systems through wired or wireless communication, allowing real-time data exchange between vehicles and central control environments.

In-vehicle embedded PCs can be certified for use in buses, ambulances and logistics fleets, depending on the selected model. Many in-vehicle computers support standards such as E-Mark for road vehicles or EN 50155 for rail applications, addressing electrical, mechanical and environmental safety requirements. Certification availability depends on the platform and vehicle type, and we help select a vehicle embedded PC that meets the applicable regulatory and safety standards for your specific use case.

Yes, in-vehicle computers support real-time communication features such as GPS, LTE and Wi-Fi for fleet coordination. These interfaces enable vehicle tracking, data synchronisation and communication with dispatch or backend systems. Support for these features depends on the selected configuration and expansion options, allowing the in-vehicle computer to be tailored to the communication needs of the fleet.

A rugged in-vehicle computer box is specifically designed to withstand vibration, mechanical shock and temperature fluctuations commonly found in delivery trucks and buses. Reinforced housings, secure connectors and automotive-grade components help ensure stable operation during daily driving cycles. Many rugged vehicle computers also support extended temperature ranges, allowing them to operate reliably in both cold starts and warm cabin or engine-adjacent environments.

Yes, an in-vehicle computer system can be connected to existing vehicle displays and diagnostic interfaces. Depending on the platform, support is available for standard video outputs and vehicle communication interfaces such as CAN bus. This makes it possible to integrate the in-vehicle computer with existing displays, diagnostic tools or vehicle data systems without requiring major changes to the vehicle infrastructure.

Remote management and MDM capabilities for in-vehicle PCs are supported depending on the selected platform and operating system. Many vehicle computers can be integrated with third-party remote management solutions for monitoring, updating and maintaining systems across large fleets. We advise on suitable platforms and configurations that support centralised management, helping fleet operators maintain control and consistency across distributed vehicle deployments.

A System on Module (SoM) is a compact computing module that integrates the core components of an embedded system, such as the processor, memory and power management. The module is mounted on a carrier board that provides the application-specific I/O and connectors. A single-board computer (SBC) combines both the computing core and the I/O on a single board and can be used as a standalone system. The key advantage of a SoM is that the computing module is separated from the application-specific hardware, making the system more flexible and easier to maintain or upgrade over its lifecycle.

An industrial System on Module is well suited for applications where long-term availability, compact design and controlled system evolution are important. Typical use cases include industrial automation, machine control, transportation systems, medical equipment and embedded gateways. These applications benefit from the modular architecture of a SoM, as it allows hardware updates or performance scaling without redesigning the complete system.

Customisation of a SoM is mainly handled at manufacturer level. Intemo works with established System on Module manufacturers that offer a wide range of options in processor choice, memory size, storage type and supported interfaces. Based on your OEM design requirements, we help select the most suitable SoM platform and configuration. Application-specific I/O and functionality are typically implemented on the carrier board, allowing the core module to remain standard and stable.

System on Modules used in industrial applications are designed for long-term availability. Many platforms follow extended lifecycle roadmaps, often spanning ten years or more, depending on the manufacturer and processor family. Intemo supports the selection of System on Modules with predictable availability and controlled revisions. This helps prevent unexpected hardware changes and supports consistent production, deployment and maintenance throughout the lifecycle of your embedded system.

Industrial System on Module platforms typically support common embedded operating systems such as Linux distributions and Windows IoT. Support depends on the selected processor architecture and manufacturer. We advise on platform compatibility to ensure the chosen SoM aligns with your software environment, performance requirements and long-term support expectations.

Thermal behaviour, power efficiency and reliability are key design considerations for industrial System on Modules. These modules are engineered to operate within extended temperature ranges and under continuous load. By selecting the appropriate SoM platform and combining it with a well-designed carrier board, thermal performance and power consumption can be controlled at system level. Intemo supports this selection process to ensure stable operation in demanding industrial environments.

Intemo is not a System on Module manufacturer, but a specialised supplier and advisor. We work with established System on Module manufacturers and focus on long-term availability, platform stability and practical integration support. Customers value our technical guidance during the early design phase, clear communication and experience with long-running industrial projects. This helps reduce design risk and ensures the selected System on Module remains viable throughout the full lifecycle of the embedded system.

Intemo supports companies with industrial IoT hardware for both factory and field environments. Depending on the application, this can include industrial IoT devices, embedded computers, industrial gateways and edge-capable platforms designed for continuous operation. The right hardware setup depends on factors such as connectivity, interfaces, environmental conditions and lifecycle requirements. We help translate those needs into a stable, supportable hardware foundation.

The difference between consumer-grade and industrial-grade IoT hardware is mainly in reliability, durability and lifecycle support. Industrial IoT hardware is designed for continuous operation and predictable performance in demanding environments. It is typically built for long-term availability and support, so systems can remain consistent over many years. Consumer-grade hardware is usually intended for controlled conditions and intermittent use. It often has shorter lifecycles and is less suitable for vibration, dust, temperature variation or long-term deployment.

Intemo supports industrial IoT projects at system level with a consultative approach focused on hardware architecture. We help define which IoT hardware and device configuration best fit the application, environment and scalability needs. End-to-end system integration and application-level software are typically handled by the customer or their integration partner.

Industrial IoT is relevant in all industries where reliable connectivity and real-time visibility are critical in daily operations. Typical sectors include manufacturing, logistics, energy, infrastructure and industrial services. In these environments, industrial IoT hardware supports use cases such as remote monitoring, condition-based maintenance, asset tracking and process monitoring in both factory and field deployments.

A fanless industrial computer is a system that uses passive cooling instead of fans to dissipate heat. Heat is transferred through heat sinks and a conductive chassis, eliminating moving parts. You should choose a fanless computer when your application requires high reliability, minimum maintenance and continuous operation. Fanless systems are especially suitable for dusty environments, vibration-prone installations or locations where access for maintenance is limited. In these situations, a fanless industrial computer offers a longer lifespan and more predictable performance than actively cooled systems.

Yes. Fanless industrial PCs and fanless embedded computers are well suited for dusty, dirty and vibration-prone environments. Because there are no cooling fans, dust and contaminants cannot be drawn into the system. The sealed design and solid-state components reduce mechanical wear and increase reliability. This makes fanless computers a strong choice for factories, production lines, transportation systems and other demanding industrial environments.

A fanless panel computer combines a touchscreen interface with passive cooling in a single enclosure. This provides silent, maintenance-free operation and makes the system suitable for HMI applications and control rooms. Industrial fanless panel PCs are often designed with sealed front panels and IP-rated protection. This improves resistance to dust, moisture and cleaning procedures, which is especially important in food processing, clean environments or areas with strict hygiene requirements.

Yes, customisation of your fanless industrial PC is possible depending on the hardware platform. Many fanless computers support different processor options, storage configurations and a wide range of I/O interfaces such as Ethernet, USB, serial ports or digital I/O. Mounting options can also vary, including DIN-rail, wall mount or panel mount. Intemo helps select and configure a fanless industrial PC that matches your technical requirements and installation constraints.

Industrial fanless computers manage heat through passive cooling. Heat is transferred from the processor to heat sinks and dissipated via a conductive chassis. This design avoids hotspots and keeps temperatures stable under continuous load. Because there are no moving parts, wear is reduced and the risk of mechanical failure is lower. This typically results in a longer lifespan and more stable long-term performance compared to systems with active cooling.

Yes. Intemo offers compact fanless embedded computers designed for space-constrained applications such as control cabinets, machines and vehicles. These systems are built with compact enclosures, solid-state components and passive cooling. They are commonly used for automation, edge computing and mobile applications where space is limited and reliable 24/7 operation is required. Intemo helps select the right fanless embedded computer based on the available space, workload and environmental conditions.

The typical lead time for a fanless industrial PC depends on the selected platform and configuration. Standard models follow the manufacturer’s lead time, while customised configurations may require additional preparation time. Fanless industrial PCs are generally designed for long-term availability. Many platforms follow extended lifecycle roadmaps, which helps ensure that identical or compatible systems remain available for multiple years. For recurring projects, Intemo can also support stock agreements or keep systems and key components available to support continuity and faster delivery when needed.

Edge computing processes data close to machines and production processes. This reduces latency, supports faster responses and helps keep critical functions running, even when connectivity to central systems is limited. Depending on the platform, edge hardware can support local filtering, aggregation and event-based processing before data is forwarded to higher-level systems.

Intemo supports the early phase with a consultative, hardware-focused approach. We help clarify requirements, translate them into technical specifications and support platform selection and configuration through our technology partners. Implementation, system integration and application-level software are typically handled by the customer or their integration partner.

Intemo supports early-stage Industry 4.0 projects by advising on, selecting and supplying Industry 4.0 hardware from established technology partners. This typically includes industrial computing platforms, connectivity components and edge-capable systems for data capture, local processing and reliable communication. The right platform depends on the use case, performance requirements, interfaces, operating conditions and lifecycle expectations. We help translate these requirements into a stable hardware foundation before implementation starts.

Legacy machines often require different interfaces than modern IoT platforms. Depending on the application, this can involve serial communication, digital I/O or other industrial interfaces. Intemo helps determine which interfaces and converters are needed at hardware level, so legacy equipment and modern systems can exchange data reliably within one architecture.

Yes. Depending on the selected model, Industry 4.0 hardware such as edge computing platforms can support the data capture and local processing needed for use cases like predictive maintenance and digital twins.

Industry 4.0 and smart manufacturing are widely adopted across sectors where operational data, uptime and automation are critical. Examples include manufacturing and machine building, logistics and transportation, and mission-critical environments. Within Intemo, we support a wide range of industrial and mobility-related applications, including public safety and smart infrastructure projects, alongside customers using industrial computing platforms to support machine control and connected operations.

CityZenZ is a scabable smart road lighting system, because it uses existing lighting infrastructure as a foundation and adds smart control and connectivity. Through smart control and expandable functionality, cities can easily scale towards sensors and data analysis. The CityZenZ dashboard integrates with existing asset management systems and provides a strong basis for centralised management and future smart city developments.

CityZenZ is a smart street light control system that transforms traditional street lighting into a connected and data-driven infrastructure. By combining smart city street light sensors, communication networks and software, it enables adaptive street lighting, reduces energy consumption and lowersmaintenance costs. Public lighting becomes a data-driven infrastructure that helps municipalities move towards a future-proof smart city.

CityZenZ combines smart street lighting control, real-time monitoring of the electricity grid and a provider-independent IoT network within one platform. This turns public lighting into the digital backbone of the city and allows municipalities to expand their infrastructure step by step into a data-driven and energy-intelligent environment.

Intemo helps determine the right solution by analysing the specific requirements of your smart street lighting system: at grid supply and control cabinets (Switch), network and data management (Connect), or individual lighting columns (Litec). This approach creates a scalable architecture that enables municipalities to modernise their public lighting into energy efficient street lighting in a targeted and phased way.

CityZenZ Switch, Connect and Litec each represent different layers within the intelligent street lighting system. Switch manages switching at grid level, Connect provides central management and data control, and Litec enables adaptive street lighting and IoT functionality at individual light points. Together, they form a complete and scalable smart street lighting solution.

CityZenZ supports smart city lighting solutions by using public lighting as a modular foundation. By integrating controllers, wireless communication and an open platform into lighting columns, a city can start with smart lighting and later easily expand with sensors, mobility, energy management and other smart city applications.This makes it easy to scale from lighting control to a fully connected smart city infrastructure.

An intelligent street lighting system provides multiple benefits across stakeholders. Cities benefit from energy efficient street lighting, improved safety and data-driven decision-making. Contractors benefit from new roles in integration and service, whilenfrastructure managers gain real-time insight, predictable maintenance and lower costs.

An automated street lighting system improves efficiency by adjusting lighting based on usage, time and environmental conditions. By combining sensors, communication and software, it reduces energy consumption, increases safety through adaptive lighting and provides real-time operational insight. This leads to more efficient and predictable management of public lighting.

Yes, CityZenZ is designed to control existing street lighting wirelessly and remotely. Without major modifications, lighting columns become part of an IoT enabled smart lighting system that can be centrally managed and monitored, making it easy to upgrade existing infrastructure.

Yes, CityZenZ is a modular and scalable smart street lighting system that supports phased deployment. Cities can start with a single application and expand over time. This flexible approach allows municipalities to implement smart functionality where it adds the most value, (for example advanced Litec applications on main roads, while using basic switching functionality in residential areas) while keeping full control over investments and rollout.

An industrial machine vision system combines cameras, controlled lighting and industrial computing to inspect products automatically on the production line. Instead of relying on manual checks or basic camera snapshots, the system analyses images in real time and sends results to machines, robots or control systems. This enables consistent inspection at production speed. Unlike standard camera-based inspection, which often involves isolated image capture or human evaluation, an industrial machine vision system operates as part of an integrated automation loop. Inspection results can immediately trigger actions such as product rejection, sorting or process adjustments, helping reduce defects

Industrial machine vision technology is used wherever visual information is critical for quality and process control. Common applications include automated quality inspection, dimensional verification, traceability through barcode or code reading, robotics guidance, assembly verification and packaging checks. These applications benefit most in environments where manual inspection limits throughput, where zero-defect production is required or where full traceability and regulatory compliance are essential. By providing consistent real-time feedback, industrial machine vision helps reduce defects, improve yield and maintain stable production performance.

An industrial vision system typically includes cameras, lenses, lighting, a processing platform and the required interfaces for triggers and data exchange. Selection depends on resolution, inspection speed, mounting space, environmental conditions and integration requirements. The processing platform must reliably handle high image data rates and support real-time analysis while integrating with industrial networks on the production line. Intemo supports the selection of embedded computing platforms that match these system-level requirements and ensure stable long-term operation.

Machine vision systems are typically integrated via industrial Ethernet networks and standard control interfaces. Vision results can be shared with PLCs, robots or control systems to trigger actions such as rejection, sorting or robotic movement in real time. Depending on the production environment, integration may use protocols such as PROFINET, EtherNet/IP or Modbus TCP. Reliable, low-latency communication ensures that inspection results translate directly into immediate machine responses without disrupting cycle times.

Yes, when the appropriate hardware platform and enclosure are selected. Depending on the configuration, industrial machine vision solutions can support extended temperature ranges, resistance to shock and vibration, and protection against dust or moisture through sealed or IP-rated designs. By aligning the computing platform with the environmental conditions of the production environment, Intemo helps ensure stable performance and long-term reliability, even under demanding industrial conditions.

Intemo supports OEMs and machine builders by advising on, selecting and supplying embedded computing platforms for industrial machine vision systems. We focus on performance fit, platform stability and long-term availability to ensure consistent hardware across machine generations and production rollouts. Where required, configurations can be tailored to specific interface, mounting or environmental requirements. This helps OEMs reduce redesign risks and maintain predictable lifecycle management over multiple years.

While many machine vision manufacturing companies focus primarily on cameras or vision software, Intemo concentrates on the embedded computing foundation that powers industrial machine vision systems. We support manufacturers by selecting and supplying stable, industrial-grade platforms designed for continuous operation and long-term availability. This hardware-focused approach ensures predictable performance, seamless integration with automation systems and reduced redesign risks over the lifecycle of the production line.

Intemo supports industry automation for the manufacturing industry by advising on, selecting and supplying industrial hardware platforms that enable reliable machine control, data acquisition and system integration for manufacturing environments. This includes industrial PCs, displays and connectivity and I/O components that form the backbone of automation in manufacturing industry environments. These platforms form a stable foundation for automated production systems, machine control and industrial process automation.

Intemo supports OEMs and system integrators in industrial automation engineering projects by translating application requirements into robust hardware architectures. We advise on platform selection, connectivity needs, environmental suitability and long lifecycle availability to ensure technical alignment from design to deployment. By providing a stable and consistent hardware foundation, we help reduce integration risks, simplify certification processes and support predictable long-term operation across multiple installations or machine generations.

Intemo supports the early design phase as an industrial automation consultant focused on hardware. We help define requirements, advise on suitable platforms and align the hardware architecture with performance, operating conditions and lifecycle needs. While application-level implementation is typically handled by system integrators or automation partners, Intemo supports all hardware-related aspects, including operating system compatibility, drivers, performance validation and lifecycle planning.

Depending on the selected platform and configuration, industrial computing and connectivity hardware can support Industry 4.0 automation. It enables secure data exchange between machines, control systems and higher-level systems. This supports IoT in industrial automation and process control by enabling real-time monitoring, predictive maintenance and data-driven optimisation across connected production environments.

Yes. Intemo supplies industrial systems that can interface with both legacy PLC/SCADA environments and modern MES or cloud platforms for industrial process automation. We help identify the right platform capabilities and interfaces for your setup, based on the requirements of the application. This flexibility is particularly important in brownfield factories, where existing control systems must remain operational while new automation layers are introduced.

Intemo addresses safety standards and certifications at platform level in cooperation with our suppliers. We help identify platforms that match the relevant requirements for the environment and application, and support the available documentation from the manufacturer. For cybersecurity, platform selection takes into account secure boot options, operating system hardening and controlled network access. This supports reliable and secure deployment within modern industrial automation and robotics environments.

Scaling starts with selecting stable hardware platforms with long lifecycle availability. Intemo supports this by advising on platforms that remain consistent over time, making it easier to replicate solutions across production lines, sites or factories. A consistent hardware architecture simplifies replication across multiple sites and supports centralised lifecycle and configuration management. This reduces redesign effort and helps organisations scale industry automation in a controlled and supportable way.

Intemo advises on, selects and supplies a broad range of industrial embedded computing platforms for automation environments. This includes embedded PCs, box PCs, panel PCs, industrial controllers and edge capable systems designed for continuous operation. The right platform depends on performance requirements, connectivity, environmental conditions and lifecycle expectations. Intemo helps determine which embedded computing solution best fits your application.

Yes. Intemo supports OEMs by advising on embedded hardware platforms that can be configured or adapted to specific application requirements. This may include platform selection, form factor considerations, I/O configuration, lifecycle alignment and includes collaboration on embedded hardware development projects where long-term product consistency and integration into OEM architectures are required. Full custom hardware development is typically delivered in close cooperation with our suppliers and technology partners.

Industrial embedded systems are designed to operate reliably under demanding conditions. Depending on the selected platform, this can include extended temperature ranges, resistance to vibration and shock, fanless designs and protection against dust or moisture. Intemo helps match embedded hardware specifications to the environmental conditions of your application.

Embedded computing platforms supplied by Intemo support a range of operating systems, depending on the hardware and application requirements. Common options include Windows, Linux distributions and, where applicable, real time operating systems. Intemo provides guidance on operating system compatibility and platform support to help ensure reliable operation within the overall system architecture.

Yes, depending on the selected configuration, embedded computing platforms can support AI workloads and edge inference in industrial environments. In many IoT embedded systems, models are trained centrally and deployed locally for real-time inference close to the physical process. Support may include CPU-based inference or configurations that support accelerators such as GPUs or NPUs.

Intemo supports embedded computing projects with a structured approach that starts with defining system requirements and architectural constraints. We translate performance, environmental and connectivity needs into a suitable hardware platform, aligned with long-term lifecycle expectations. Where needed, we collaborate on embedded hardware development with technology partners, ensuring a solid, scalable and supportable computing foundation for OEM and system-level integration.

Industrial embedded computing platforms differ from standard off the shelf hardware in lifecycle stability, environmental robustness and architectural consistency. They are designed for predictable performance in demanding environments, long-term availability and integration into industrial systems. Intemo adds value beyond the hardware itself. We advise on requirements, select the right platform and supply industrial grade systems that match the application, environment and lifecycle expectations. Where needed, we support configuration and customisation and provide technical guidance to reduce integration risk and keep systems supportable over time.

Industrial edge computing devices are rugged computing platforms that process data close to where it is generated, such as machines, sensors or production lines. Instead of sending all data to a central server or cloud, these devices process data locally and can trigger actions based on what they detect. By processing data at the edge, industrial edge devices support real-time data processing with minimal latency. This enables faster responses to machine events, process deviations or quality issues in time-critical manufacturing applications.

Edge computing improves manufacturing performance by reducing latency, lowering network load and increasing reliability. Local data processing enables faster decisions and avoids delays caused by cloud communication or network congestion. Because edge computing devices can keep running when connectivity is limited or temporarily unavailable, production processes remain more stable and predictable. This reduces dependency on centralised systems.

Reliable edge computing hardware must support continuous operation, real-time processing and long-term availability. Key requirements typically include sufficient compute performance, industrial connectivity options, extended temperature support and resistance to vibration and dust. Long lifecycle availability is also important, so that edge computing platforms can be deployed consistently across machines or lines and supported over multiple years.

Yes, edge computing solutions can be integrated alongside existing PLC or SCADA systems, depending on the interfaces and protocols in your environment. Edge devices can collect, filter or enrich data from control systems without replacing the current automation layer.

Compared to cloud-only architectures, edge computing offers lower latency, higher reliability and less dependency on constant connectivity. This makes it especially suitable for real-time and mission-critical manufacturing applications. Cloud platforms remain valuable for long-term storage, analytics and cross-site coordination. In many environments, a hybrid approach works best: edge computing handles real-time processing, while the cloud supports higher-level analysis and optimisation.

Scalability depends on the overall architecture, but choosing consistent edge computing devices with long lifecycle availability makes multi-site rollout much easier. Standardising on a platform helps replicate deployments across machines, lines or locations and reduces variation in maintenance and spare parts. Intemo supports this by advising on requirements and selecting and supplying a platform that can be used consistently across sites.

Unlike cloud-first service providers, Intemo focuses on the industrial hardware backbone required for reliable edge deployments. Intemo supports edge computing projects by advising on requirements and selecting and supplying industrial edge computing hardware. Our edge computing services focus on the hardware foundation, including platform choice, configuration fit and long-term availability. Installation, monitoring and daily operations are typically handled by the customer or their integration partner. Where needed, Intemo supports with technical guidance and coordination with technology partners and suppliers.

The most common applications of AI in manufacturing focus on improving efficiency, quality and predictability in production. Typical use cases include predictive maintenance, AI-driven quality inspection, production optimisation, process monitoring and intelligent automation with robotics. Across these applications, AI helps manufacturers analyse production data, detect issues earlier and reduce manual inspection or intervention while maintaining consistent output quality.

The right hardware platform depends on the use case, data volumes and how quickly the system needs to respond. For real-time decisions on the factory floor, edge computing platforms are often the best fit because they process data close to machines and sensors. For more compute-heavy workloads, such as advanced vision processing, GPU-enabled industrial systems may be required. In many cases, a hybrid setup works well: edge platforms for real-time inference and centralised servers for training and data aggregation. Intemo supports hardware selection by translating performance, environment and lifecycle requirements into a platform choice that fits the application.

Traditional automation uses predefined rules and fixed logic to control a process. It works best for stable, repetitive tasks where conditions are consistent and predictable. Artificial intelligence in manufacturing uses data to recognise patterns, handle variation and make predictions. AI is a good fit when processes change over time, when there is natural variability, or when you need to analyse large amounts of data. In many factories, automation and AI are used together: automation for control, AI for insight and optimisation.

Intemo focuses on the industrial hardware foundation for AI in manufacturing. We translate requirements into a platform choice and supply industrial-grade systems designed for continuous operation and long lifecycle availability. This helps organisations deploy AI closer to production processes, reduce integration risk and keep systems reliable and supportable over time.

The right industrial PC for your application depends on factors such as performance requirements, environmental conditions, available space and the interfaces your system needs. To determine which industrial PC is suitable, we assess the workload, required communication standards, mounting constraints and long-term availability expectations. Based on these criteria, we help you select a platform that fits your machine design or automation environment.

Yes. Industrial PCs are specifically designed to handle vibrations, dust and temperature fluctuations found in many industrial environments. Industrial PCs resist these conditions by using sealed housings, reinforced electronics and cooling concepts that tolerate rapid temperature changes. Depending on the model, systems may also support extended operating temperatures or fanless operation to maximise stability.

Yes, Intemo can provide customised industrial computer solutions. We start by identifying which industrial computer best fits your application, and when additional adaptations are required, we configure the system in house. This may include adjusting I/O, storage, BIOS settings or software images. In this way, the customised industrial computer aligns with your technical environment and integrates reliably into your machine or automation process.

The lifespan of an industrial PC typically ranges from five to ten years, depending on the workload and operating environment, such as continuous operation, ambient temperature and exposure to dust, vibration or shock. As for how long the system will remain available, many industrial PCs use components that follow extended lifecycle programs or Intel’s embedded roadmap. This ensures that identical configurations can be supplied for many years, reducing redesign work and minimising disruptions during maintenance or system expansion.

Intemo offers a range of services besides hardware, including configuration, documentation, pre-deployment testing and long-term lifecycle management. We can prepare system images, adjust BIOS settings, verify communication with PLCs and support certification requirements when needed. These services help ensure that the industrial PC integrates smoothly into your machine or automation process with minimal engineering effort.

What sets Intemo apart is our focus on personalised support and long-term technical consistency. While larger suppliers often rely on standard catalogues, we combine platforms from leading industrial PC manufacturers with in-house configuration, testing and lifecycle planning. Customers value our fast response times, specialist knowledge and more than 35 years of experience supporting industrial applications across Europe.

A standard Box PC can handle basic computing tasks, but an industrial Box PC is built for long-term operation in tougher environments. Industrial versions may support broader temperature ranges, include fanless cooling, use long-life components and offer mounting options for installation in machines or control cabinets. These features make them a reliable choice for applications that require continuous operation and predictable lifecycle support.

When selecting an industrial Box PC, several factors matter. These include the supported temperature range, vibration and shock tolerance, and resistance to dust and moisture. The amount of available airflow is also important. If the system will be installed inside a cabinet or machine, limited space and heat buildup become additional challenges. Choosing a model with the right ruggedness and cooling concept improves system stability and extends the lifetime of your installation. At Intemo, we help assess these conditions so you can select a system that suits your environment.

Many of our Box PCs use fanless cooling, which reduces wear since there are no moving parts. This makes these systems well suited for dusty areas or enclosed installations, while also being a lower-maintenance option. However, not every Box PC operates without a fan. Some applications require active cooling, and for those situations we offer models with fans. Our team can help you choose the cooling approach that best fits your application.

Yes. Many models support multi-display setups and can be equipped with high-performance graphics options. Depending on your requirements, we can provide systems with powerful GPUs, multiple video outputs and the bandwidth needed for tasks such as vision inspection, dashboards, HMIs or real-time monitoring. We advise on the right configuration to ensure smooth operation.

Absolutely. We can customise I/O, storage, memory and other components where the hardware platform allows it. When needed, our team configures the system in-house, ensuring that the final setup aligns with your machine or workflow. This reduces installation time and lowers the chance of compatibility issues later on.

An industrial Box PC is designed specifically for demanding environments. Compared to a traditional desktop, it may offer fanless cooling, long-term available components, extended temperature support, higher vibration resistance and a compact form factor suitable for installation inside machines or cabinets. This results in greater reliability, lower maintenance and stable performance where a desktop PC would struggle.

Delivery time depends on the model and whether your configuration requires adjustments. Standard systems follow the manufacturer’s lead time. Customised configurations may take longer because we prepare and validate these in-house. For customers with recurring demand, we can also keep systems or critical components in stock to ensure faster delivery for future projects.