Edge AI

Unlocking the Power of AI at the Edge

Artificial Intelligence has gone from being a futuristic promise to an omnipresent reality. Although the conversation often focuses on the computing power of the cloud and large servers, the true potential of AI for many applications lies much closer to home, in the devices themselves: Edge AI, the artificial intelligence that is redefining the future of the industry.

What is Edge AI and why is it so important?

Edge AI refers to the ability to run artificial intelligence and machine learning algorithms directly on end devices (the ‘edge’ of the network), without the need for a constant connection to a centralised data centre or the cloud. This allows devices to make decisions autonomously and process data in real time.

This trend is a response to several challenges inherent in cloud-based AI:

  1. Latency: Sending data to the cloud and waiting for a response can be too slow for critical real-time applications (autonomous vehicles, robotics, medical monitoring).
  2. Bandwidth: Generating and transmitting terabytes of data from thousands of devices to the cloud is expensive and consumes a huge amount of bandwidth.
  3. Security and Privacy: Processing sensitive data locally reduces exposure to transmission vulnerabilities and complies with stricter privacy regulations.
  4. Reliability: AI at the edge can function even with intermittent or no connectivity, which is crucial in remote or critical environments.
  5. Energy Efficiency: Although edge hardware must be efficient, total energy consumption can be lower by avoiding the constant transmission of large volumes of data.

Placa de desarrollo con microcontrolador para Edge AI y elementos de conectividad.

Edge AI vs. Cloud AI: A Comparison

To better understand when to choose one or the other, or how to combine them in a hybrid approach, let’s look at the key differences between Edge AI and Cloud AI

Features

Edge AI

Cloud AI

Location

Directly on the end device (sensors, robots, cameras, gateways) Remote data centres, cloud servers

Latency

Very low, real-time processing High, depends on distance and bandwidth

Bandwidth

Low, only relevant data or results are transmitted High, large volumes of raw data are transmitted

Security/Privacy

High, data remains locally Depends on cloud provider and transmission policies

Reliability

Operates offline, high resilience Requires constant connectivity

Computing Power

Limited (optimised for efficiency) Almost unlimited (large scale, powerful GPUs)

Operating Cost

Low for processing, high for initial hardware High for resource usage (pay-per-use), low for initial hardware

Flexibility

Lower, requires optimisation of specific models High, complex models, easy to update

Typical Use Cases

Autonomous vehicles, drones, robotics, industrial machine vision, offline predictive maintenance Big data analysis, complex model training, natural language processing, recommendation systems, chatbots

Hardware: The Heart of Edge AI

The success of any Edge AI project depends, to a large extent, on choosing the right hardware. We are no longer talking only about powerful CPUs, but about a range of specialised components designed for efficiency and performance at the Edge.

The Edge AI revolution is visible across a range of industries. Security systems can now detect intruders autonomously, industrial robots adapt to their environment in real time to optimise processes, and medical devices analyse data for more accurate diagnoses on the spot. It is also evident in transport, with autonomous vehicles making crucial road safety decisions in milliseconds.

To make this possible, hardware that can execute intelligence on the device is required. Key components for Edge AI development include:

  1. Microprocessors (MCUs/MPUs) with ML capabilities: Increasingly, manufacturers are integrating machine learning (ML) accelerators or neural processing units (NPUs) directly into chips, enabling lightweight model inferences to be executed with very low power consumption.
  2. Graphics Processing Units (GPUs) and AI Accelerators: For more intensive tasks such as computer vision or signal processing, compact GPUs or specialised chips (TPUs, FPGAs, ASICs) offering high parallelism are required. Leading manufacturers such as ASUS IOT, Axiomtek, and Seco, which implement solutions from Intel, Nvidia, and Hailo, are at the forefront of creating these high-performance accelerators.
  3. Smart Sensors: Sensors with data pre-processing capabilities and integrated filters that reduce the load on the main processor.
  4. Advanced Connectivity Modules: 5G, LoRaWAN, NB-IoT or Wi-Fi 6 modules for efficient and reliable communication with the cloud or between devices.
  5. Optimised Memory: RAM and storage (eMMC, NVMe) that can handle the speed and volume of data required by AI models.

Your Partner in Hardware for Edge AI

At Matrix, we understand that bringing your Edge AI ideas to life requires more than just software. You need robust, efficient, and reliable components to form the foundation of your project.

We work with leading manufacturers to offer you a specialised selection of:

  • Industrial edge computers
  • MPUs with integrated ML accelerators
  • Compact, low-power machine vision modules
  • Edge AI-optimised development boards, ready for prototyping.
  • State-of-the-art connectivity modules to ensure your device’s communication.
  • High-quality passive and active components to guarantee the stability and performance of your design.


👉 Are you designing your next AI-enabled embedded system? Looking to optimise the performance and efficiency of your solution at the edge?

👉Our team of experts is ready to advise you on selecting the perfect components for your next project.

👉Don’t leave your AI stuck in the cloud! Unleash its true potential at the edge with the right hardware.

AGV and AMR, the Key to Intelligent Automation

Revolutionising Industry: AGVs – Automated Guided Vehicles and AMR – Autonomous Mobile Robots

Today’s manufacturing and logistics landscape is undergoing a dynamic transformation thanks to advances in automation technologies. Two of these technologies, Automated Guided Vehicles (AGVs) and Autonomous Mobile Robots (AMR), have become the pillars of this transformation. They are crucial for automating various tasks in warehousing, manufacturing and logistics. Despite their similarities, understanding their differences is key to choosing the right automation solution.

Automated Guided Vehicles (AGVs): Precision and Efficiency on Fixed Routes

AGVs are robotic vehicles programmed to follow a fixed route within a facility. They typically rely on markers or wires in the ground, or use vision, magnets or lasers to follow a pre-set route. These routes are usually predetermined and only change if they are reprogrammed or reconfigured. This makes AGVs excellent for repetitive tasks and simple applications where the environment remains relatively constant, such as transporting goods along a production line.
The strength of AGVs lies in their ability to perform tasks with high precision and efficiency, providing a reliable and cost-effective solution for moving materials in a controlled environment. They minimise errors, reduce labour costs and improve safety by reducing accidents associated with manual handling.

   

Autonomous Mobile Robots (AMR): Intelligence and Adaptability in Dynamic Environments

While AGVs have been around for decades, Autonomous Mobile Robots are a more recent development in the field of automation. AMRs are characterised by their higher degree of autonomy, ability to navigate and make independent decisions based on their environment. Equipped with advanced sensors, cameras and artificial intelligence, AMRs can sense their environment, map their surroundings and dynamically redirect themselves if they encounter an obstacle.
AMRs are especially useful in complex and changing environments where routes must be adjusted frequently. This makes them highly adaptable and flexible, suitable for highly reactive and versatile applications. AMRs can also learn from their experiences, optimising their performance through machine learning algorithms.

AGV and AMR: Complementary Technologies for Industry 4.0

Choosing between an AGV and an AMR comes down to analysing your specific needs, assessing the nature of your operating environment and understanding the tasks you need to automate. An AMR might be ideal if the work requires high flexibility and adaptability, such as in a dynamic warehouse environment. Conversely, for structured and repetitive tasks in a controlled environment, an AGV would be more appropriate.

In reality, the choice is not always binary, and a combination of AGVs and AMR can be deployed to maximise the efficiency and effectiveness of your operations. They are not competing technologies, but complementary solutions designed to address different scenarios in the Industry 4.0 era.

Both AGVs and AMR significantly automate logistics and manufacturing processes, increasing productivity, reducing costs and improving safety opportunities. Understanding their unique strengths and potential applications is crucial for companies looking to harness the full potential of automation technologies in their operations.

Driving Intelligent Automation with Industrial IT Solutions

AMRs rely on a complex combination of sensors and decision making, complex route planning, machine learning and precise navigation. AGVs, on the other hand, focus on precise navigation along fixed routes, support for multitasking tasks and simplified maintenance and safety.

AIE510-ONX

Fanless AI system with NVIDIA® Jetson Orin™ NX (16GB, 100 TOPS), 8-core Arm Cortex-A78AE CPU, Ampere GPU with 32 Tensor Cores, LPDDR5 memory, expansion options, and Temp from -25°C to +60°C.

AIE100-ONA

Edge AI fanless system with NVIDIA® Jetson Orin™ Nano (up to 1024 Ampere cores and 32 Tensor Cores), up to 8GB on-board LPDDR5 memory, M.2 and PCIe expansion options, and operating temperature from -20°C to +50°C.

PE2101N

PE2101N

Edge AI fanless system with NVIDIA® Jetson Orin™ Nano (up to 1024 Ampere cores and 32 Tensor Cores), up to 8GB on-board LPDDR5 memory, M.2 and PCIe expansion options, and operating temperature from -20°C to +50°C.

NVIDIA Jetson™ AGX Orin™, Intelligent Edge AI System, Arm-based, Up to 275 TOPS, Dual LAN, Quad POE LAN, M.2 E, M.2 M, M.2 B, 9 to 36V, -25 to 55 °C

PE2100N

Rugged fanless intelligent edge AI system with NVIDIA Jetson™ AGX Orin™, up to 275 TOPS, dual LAN, quad PoE LAN, multiple expansion slots, wide power input (9-36VDC), and operating temperature from -25°C to 55°C.

 

PE1102N

Rugged Edge AI system with NVIDIA® Jetson™ Orin™ Nano™, supports up to four GMSL2 cameras, designed for demanding AI applications such as autonomous vehicles, robotics, industrial automation, and video surveillance.

PE1101N

PE1101N

Rugged fanless intelligent edge AI system with NVIDIA Jetson™ Orin™ NX or Orin™ Nano, up to 100 TOPS, GbE LAN, dual M.2 slots for expansion, wide power input (12-24VDC), and operating temperature from -25°C to 55°C.

 

PE1100N

PE1100N

Rugged fanless intelligent edge AI system with NVIDIA Jetson™ Orin™ NX or Orin™ Nano, up to 100 TOPS, GbE LAN, dual M.2 slots for expansion, wide power input (12-24VDC), and operating temperature from -25°C to 55°C.

EBS - PE1000N

PE1000N

Intelligent edge AI system with NVIDIA Jetson™ Nano™, TX2 NX, and Xavier™ NX, fanless design, dual LAN, HDMI, multiple M.2 slots, mini PCIe, dual SIM, built-in Wi-Fi & BT, LTE-ready, AEM support, and wide power input (12-24V).

 

Drive Your Industry into the Future with Advanced Automation Solutions

Industrial Automation: Solutions & Products

In the era of industrial digital transformation, automation has become a cornerstone for companies seeking efficiency, flexibility, and sustainability. At Matrix.es, we offer comprehensive industrial automation solutions designed to take your business to the next level.

What will you find in our solutions?

  • Industrial Process Automation: We implement robotic and automated systems to optimize production and reduce errors.
  • Predictive Maintenance: We use sensors and data analysis to anticipate machinery failures, minimizing downtime.
  • Intelligent Energy Management: We monitor and control energy consumption to reduce costs and meet sustainability standards.
  • Advanced Connectivity: 5G industrial networks and state-of-the-art sensors for fast and reliable communication.
  • High-Quality Products: Industrial PCs, Panel PCs, screens, sensors, and much more, designed for demanding industrial environments.

Benefits of Automation:

  • Process simplification and error reduction.
  • Optimization of operating costs and increased productivity.
  • Greater efficiency in resource management and sustainability.
  • Scalability and flexibility to adapt to market demands.

Key Features:

  • Intelligent control and real-time monitoring.
  • Modular and scalable equipment.
  • Reduction of human error and energy efficiency.
  • Interoperability and advanced connectivity.

At Matrix.es, we are committed to providing customized solutions that adapt to the specific needs of your company, ensuring reliability and compatibility in any environment.

Visit our Industrial Automation page for more information about the solutions and products we can offer you for your project: Industrial Automation

Advanced Technology Solutions for Road and Rail Transport

Advanced technology for efficient transport

We have expanded our website with a general transport section, including links to the new rail transport and in-vehicle systems sections. Here, you will find detailed information about our solutions and products designed to optimise efficiency, safety and connectivity in these demanding environments.

In a world where mobility and efficiency are paramount, we offer advanced technologies and innovative solutions that transform the transport sector.

Our robust and reliable equipment complies with the most stringent regulations, such as EN50155 for rail transport and E-Mark for road vehicles.

 

     

Featured solutions

  • Passenger Information Systems (PIS): Digital displays and mobile applications that provide real-time information to passengers, improving their experience and facilitating transport management.
  • Predictive Vehicle Maintenance: Integrated sensors that monitor the condition of critical components and warn of potential failures, reducing downtime and improving safety.
  • Smart Payment Systems: Contactless payment solutions that speed up access and reduce waiting times, improving the user experience.
  • Public Transport Capacity Control: Real-time monitoring of passenger numbers to facilitate capacity management and improve comfort and safety.
  • Fleet Tracking Systems: Real-time tracking to optimise routes, save fuel and improve operational efficiency, while providing greater safety.
  • Reducing Energy Consumption in Rail Transport: Energy management systems that monitor and optimise energy consumption in trains and trams, reducing costs and environmental impact.

Products

Industrial PCs, Switches, Routers, Panel PCs, Displays, Power Supplies, Antennas, Sensors, Positioning Systems.

Links to Transport Verticals

Do you need more information? Contact us.

 

The perfect alternative to Samsung LEDs with BRIDGELUX

Do you use Samsung LEDs and are concerned about their discontinuation?

BRIDGELUX, one of the leading brands in LED lighting, offers a wide range of products equivalent to Samsung LEDs.
Don’t wait any longer to ensure the optimal performance of your lighting systems! Contact us and our experts will help you find the most suitable solutions.

Discover the alternative to Samsung LEDs with BRIDGELUX

👉 Can’t find the model you are looking for? Contact us and we will offer you a personalised solution.

ASUS IoT CToS – Configure your equipment

ASUS IoT CToS

Crafting your unique service experience.

 

 

ASUS CTOS ASUS CToS redefines service by offering personalized choices in hardware, software and accessories.

Antennas Catalog Matrix 2023 -2024

New Antenna Catalogue 2023/2024

Antennas Catalogue

 

New antenna catalogue 2023/2024. We have a wide variety of models, Simple, Combi and  MIMO Antennas, 2G, 3G, 4G/LTE, 5G, GNSS, Wifi, ISM 169, ISM 433, ISM 868, ISM 915, RFID, TETRA, UHF, VHF. Connectors.

Need help choosing the right antenna? We will be happy to help you find the antenna that best suits your needs. Contact with us

 

Download the latest catalogue of Matrix Electronics Antennas

LEZ – Low Emission Zones for smart cities and urban areas

Zonas de Bajas Emisiones (ZBE) para ciudades inteligentes y áreas urbanas

 

A low emissions zone (LEZ) is an urban area in which vehicle access, circulation and parking restrictions are applied to improve air quality and mitigate greenhouse gas emissions , in accordance with the classification of vehicles by its emissions level in accordance with the provisions of the current General Vehicle Regulations.

Law 7/2021, of May 20, on climate change and energy transition establishes that municipalities with more than 50,000 inhabitants, municipalities with more than 20,000 inhabitants when the limit values ​​of the pollutants regulated in Royal Decree 102/2011 are exceeded. , of January 28 and the island territories will adopt sustainable urban mobility plans before 2023.

These zones are delimited by specific signs and apply access, circulation and parking restrictions to vehicles according to their environmental label.

Matrix Electrónica in collaboration with our partners offers a range of products to efficiently manage EPZs, improving their effectiveness and efficiency.

Our products include:

  • Access control: Switches and sensors identify vehicles that comply with restrictions and allow them access to the EPZ.
  • Mobility management: Sensors and industrial computers collect traffic data in EPZs and optimise vehicle circulation.
  • Air quality: Sensors collect data on air quality in the EPZ and assess the impact of restrictions..

If you are interested in finding out more about our ZBE products, please visit the web section or contact us.

 

ASUS continues Intel’s NUC Mini-PC line

ASUS continues Intel’s NUC Mini-PC line

 

Intel has announced that it has granted a non-exclusive licence to ASUS to develop and sell 10th to 13th generation NUC Mini PCs. This means that ASUS will be able to manufacture and sell new models of NUC Mini-PCs, as well as support current models.

«Our NUC systems product team delivered unique products that spurred innovation in the ultra-small form factor market. As we pivot our strategy to enable ecosystem partners to continue NUC systems product innovation and growth, our priority is to ensure a smooth transition for our customers and partners. I am looking forward to ASUS continuing to deliver exceptional products and supporting our NUC systems customers.»,Sam Gao, Intel vice president and general manager of Intel Client Platform Solutions

NUC mini PCs are compact and powerful devices that are ideal for a variety of uses, including work, entertainment and gaming. They are popular with users looking for a small, lightweight computer that they can easily carry with them.

Intel’s decision to license its NUC line of business to ASUS is good news for NUC mini PC users. ASUS is a trusted manufacturer with a long history of developing and selling mini PCs. ASUS is expected to continue to innovate in design and development and deliver products that are even better than current models.

In addition to the licence to develop and sell NUC mini PCs, ASUS has also announced the creation of a new business unit called ASUS NUC BU. This business unit will focus on the development and sale of NUC mini PCs, and will be headed by Joe Hsieh, chief operating officer of ASUS.

«Thank you, Intel, for your confidence in us to take the NUC systems product line forward. I am confident that this collaboration will enhance and accelerate our vision for the mini PC – greatly expanding our footprint in areas such as AI and AIoT, we are committed to ensuring the excellent support and service that NUC systems customers expect.». Joe Hsieh, ASUS chief operating officer

ASUS’ decision to create a new business unit for NUC Mini PCs is a sign of its commitment to this market. ASUS is determined to offer users the best NUC Mini PCs on the market, and is working to develop new models that are even more powerful and versatile than the current ones.

If you need more information about the new ASUS NUC BU or the Intel® NUC line-up

Source: ASUS

Layer 2 Switch and Layer 3 Switch Which Switch to choose?

What is a Switch?

A switch is a device used to connect several devices in a local network. The switch allows communication between them and the exchange of information and resources.

There are different types of switches, two of the most common are Layer 2 switches and Layer 3 switches. These designations refer to the operating levels and processing capacity of the switches in relation to the OSI (Open Systems Interconnection) reference model.

The choice between a Layer 2 and a Layer 3 switch will depend on the specific needs of the network and the functions required for its proper operation. A Layer 2 switch focuses on communication within a local network using MAC addresses, while a Layer 3 switch goes further and can perform routing between networks using IP addresses.

Layer 2 vs. Layer 3 Switch: Features and Differences

– Layer 2 Switch

A Layer 2 switch (also known as a data link level switch) is used to connect network devices in a LAN (local area network). Its primary function is to send and receive data frames between devices on the same local network. Layer 2 switches use the MAC address of a device to determine which port to send a data frame to.

– Layer 3 Switch

A Layer 3 switch (also known as a network level switch) is used to route data packets between different networks. Layer 3 switches are able to analyse data packets to determine the best network path to send them to their final destination. These switches use IP addresses to make routing decisions.

The main difference between a layer 2 switch and a layer 3 switch is their ability to operate at different layers of the OSI (Open Systems Interconnection) model. While a layer 2 switch focuses on the data link level, a layer 3 switch operates at the network level.

When to choose a Layer 2 switch and a Layer 3 switch?

 

Characteristics Layer 2 switch Layer 3 switch
Principal function Connect devices on a LAN Route data packets between different networks
OSI model layer Layer 2 (data link layer) Layer 3 (network layer)
Addresses used MAC addresses IP addresses
Make decisions of Destination port based on MAC address Network route based on IP address
Traffic management Congestion control and loop prevention Congestion control, loop prevention and QoS (quality of service)
Scalability Limited due to the size of the LAN Higher, due to the ability to route between networks
Security Limited as all devices can be accessed on the same LAN Increased, due to the ability to filter and control traffic between networks
Cost Minor, due to its simplicity and limited functionality Higher, due to its routing capability and advanced functionality

Network Switch Applications for IoT

  • Connect IoT devices: Switches can be used to connect and manage IoT devices on a network. With the number of devices expected to be connected, switches must be able to handle large amounts of traffic and provide high availability.
  • Real-time data processing : To process large amounts of data in real time, which is essential in IoT applications such as temperature control, lighting, etc.
  • Improved energy efficiency : To optimize the energy consumption of IoT devices. This can be accomplished by turning devices on or off as needed, and by allocating resources based on power consumption.

Network switch applications in different verticals.

La elección entre un switch de capa 2 o uno de capa 3 dependerá de los requisitos específicos de la red y las necesidades de cada industria.

The choice between a Layer 2 or a Layer 3 switch will depend on the specific requirements of the network and the needs of each industry.

– Data Center

Layer 2 switch:

  • Connection of servers and network storage devices.
  •  Segmentation of virtual networks (VLAN) for greater security and efficiency.

Layer 3 switch:

  • Implementation of virtualization and cloud technologies.
  • Traffic control and packet prioritization to ensure optimal network performance.

– Industry 4.0

Layer 2 switch:

  • Connection of IoT devices, sensors and actuators in industrial environments.
  • Communication and control of machines and automated systems.

Layer 3 switch:

  • Remote supervision and management of processes and production lines.
  • Implementation of industrial Ethernet networks to improve efficiency and monitoring.

– Transport

Layer 2 switch:

  • Communication systems in public and private transport.
  • Connection of security cameras and video surveillance systems.

Layer 3 switch:

  • Traffic control and intelligent signage.
  • Network management for vehicle fleets and logistics.

– Energy

Layer 2 switch:

  • Monitoring and control of energy distribution networks.
  • Integration of smart meters and energy management systems.

Layer 3 switch:

  • Communication between power generation and distribution devices.
  • Implementation of smart grids for efficient energy management.

Which switch to choose? 

The choice between a Layer 2 or a Layer 3 switch will depend on the specific requirements of the network and the needs of each industry.

At Matrix Electrónica we are specialists and we can help you choose the type of switch you need. Contact us and we will find the best switch option on the market for your specific needs

It may interest you:

Managed Switch vs Unmanageable Switch Which Switch to choose?

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