NXP Semiconductors recently announced the launch of a comprehensive Wi-Fi 6 (802.11ax) product portfolio, which greatly expands the market range of products that can adopt the latest Wi-Fi standard. NXP ’s expanded Wi-Fi 6 product portfolio demonstrates NXP ’s vision and differentiated technology approach for new end-to-end solutions designed to help the automotive, access, mobile, industrial, and Internet of Things markets embrace the era of connected innovation.

Rafael Sotomayor, senior vice president of NXP Semiconductors ’Security and Connectivity Division, said that in order to provide Wi-Fi 6 to a wider market, OEMs need Wi-Fi 6 options that can meet their needs. They need product series that can meet the performance and cost needs of different market segments. With NXP ’s latest connectivity solutions, we help customers to more easily invest in our Wi-Fi 6 platform, and then use Wi-Fi 6 for smart homes, connected cars and industrial machinery. We are very pleased to see these markets gain the advantages of Wi-Fi 6 networking.

New Wi-Fi 6 addition to NPX’s portfolio

Wi-Fi 6 adds many improvements to the connection, including symmetric multi-gigabit (multi-gigabit) upload and download, significantly reducing latency, increasing capacity, and improving power efficiency across applications. As of now, these technological advancements have been limited to high-end products. Through NXP ’s extensive product portfolio, these advantages can now be applied to large-scale deployments in multiple markets, giving products the most advanced Wi-Fi capabilities, including up to four times the performance improvement, wider coverage, extended battery life, Connection reliability is higher.

In addition, the focus of NXP ’s Wi-Fi 6 product portfolio includes its leading 4 × 4 and 8 × 8 streaming solutions integrated with Bluetooth 5 (Bluetooth 5), suitable for home and enterprise access solutions (88W9064, 88W9068), AEC-Q100-compliant dual-frequency parallel (Concurrent Dual) Wi-Fi 2 × 2 + 2 × 2 + Bluetooth 5 solution, designed for the highest performance infotainment and remote information processing automotive applications (88Q9098) , Dual-band parallel Wi-Fi 2 × 2 + 2 × 2 + Bluetooth 5 solution, providing top-level products (88W9098) for multimedia streaming and consumer access applications, 2 × 2 WiFi 6 + Bluetooth 5 focusing on the Internet of Things, Reduce costs and improve power, and NXP ’s Silicon Germanium (SiGe) -based RF front-end solution portfolio can extend Wi-Fi 6 functionality from low-end to high-end applications, including 1 × 1, 2 × 2, 4 × 4 and 8 × 8 MIMO (Multiple Input Multiple Output) solutions. The product portfolio is packaged in ultra-compact 3 mm x 4 mm modules optimized for mobile solutions.

Source: https://media.nxp.com/news-releases/news-release-details/nxps-new-wi-fi-6-portfolio-accelerates-its-large-scale-adoption/

What is Wi-Fi 6?

The Wi-Fi 6 standard enables enterprises and service providers to support new and emerging applications within the same wireless LAN (WLAN) infrastructure while ensuring higher standards of support for older applications. This scenario prepares the ground for new business models and increased use of Wi-Fi.

Upcoming Wi-Fi 6 and Wi-Fi 7 forecast for industrial IoT
Source: TP-Link

This is exactly the same standard as 802.11ax. The Wi-Fi Alliance has launched a campaign to give the IEEE 802.11ax standard the name „Wi-Fi 6”. This name suggests that this standard is a 6th generation Wi-Fi network. The justification for this idea was to simplify the marketing message of the 802.11ax standard in order to gain an image advantage over the standards of the Third Generation Partnership Project (3GPP) used in cellular network technology (e.g. 5G).

Expectations about Wi-Fi 7 standard

During a speech during the August Wi-Fi Qualcomm Day and subsequent interviews, V.K. Jones, vice president of technology, shared details about the operation of Wi-Fi 7. He expects a three-step improvement over today’s Wi-Fi 6, called 802.11ax in the world of technology.

The first improvement expected will increase Wi-Fi 6 bandwidth and use new radio waves that will allow the governments of the United States and Europe to start wireless transmission soon next year. Secondly, the Wi-Fi 6 update in 2022 should improve speed, especially for those who transfer data such as videos from phones and computers. The third, and perhaps the most interesting, is the Wi-Fi update collection expected in 2024, known only under the technical name 802.11be.

A few years ago, Qualcomm launched the Snapdragon 212 processor for smart speakers. This post has nothing to do with this, but strangely enough, the company has decided to reuse the 212 number in its new Qualcomm 212 LTE IoT modem, „World’s most power-efficient single-mode 3GPP Release 14 NB2 (NB-IoT) modem„, as read.

Qualcomm 212 LTE IoT modem requires less than 1 microamp (1uA) sleep current and has a very low cutoff at system level (on the order of 2.2V) with the ability to adjust energy consumption for various source power levels It is said to support voltage.

Qualcomm 212 LTE IoT Modem specifications:

  • MCU Core – Arm Cortex M3 @ up to 204 MHz
  • Cellular Connectivity
    • 3GPP Rel.14 LTE capabilities: Cat-NB2 with multi-carrier NPRACH and Paging, Cat-NB2 Release Assistance Indication (RAI), Cat-NB2 with larger TBS and 2 HARQ processes
    • Peak Speeds – DL: 127 kbps; UL: 158.5 kbps
    • Frequency Bands (700Mhz to 2.1 GHz for global roaming)
      • LTE low bands: B5, B68, B8, B12, B13, B14, B17, B18, B19, B20, B26, B28, B71, B85
      • LTE mid bands: B1, B65, B70, B2, B25, B66, B3, B4
    • Global Emergency Services Support – ECID, OTDOA (LTE-based positioning)
  • Network Protocols – IPv4/IPv6 stack with TCP and UDP, TLS, HTTPS, PPP, SSL, DTSL, FTP, ping, HTTTP, MQTT, OMA Lightweight M2M, CoAP
  • I/O Interfaces – 2x I2C, 2x SPI, 3x UART, up to 26 GPIOs, 4-channel ADC
  • Security – Hardware-based Crypto Engine, Secure Key provisioning, Secure Boot
  • Integrated Chipsets
    • Qualcomm 9205 baseband IC
    • SMB231 charger IC
    • PME9205 power management IC
    • SDR105 radio transceiver and front-end IC
    • WCD9306 audio codec IC
  • Supply Voltage – 2.2V to 4.5V
  • Temperature Range – -40 to 85°C
  • Package – < 10x10mm

Source: https://www.qualcomm.com/products/qualcomm-212-lte-modem

Industrial use of LTE modems

With Compute Module 3+ options from Raspberry Pi, TECHBASE upgraded their ModBerry 500/9500 industrial computers. From now on the ModBerry 500/9500 can be supported with extended eMMC, up to 32GB. Higher memory volume brings new features available for ModBerry series. ModBerry supports wide range of industrial grade extension cards, i.e. wireless modems with 3G/LTE, NarrowBand-IoT, LoRa, Wireless M-Bus, ZigBee, WiFi, Bluetooth and many more.

 ModBerry 500 with Compute Module 3+
ModBerry 500 with Compute Module 3+

Higher performance of ModBerry 500/9500 with extended eMMC flash memory, up to 32GB , powered by quad-core Cortex A53 processor allows the device to smoothly run Windows 10 IoT Core system, opening up many possibilities for data management, remote control and visualisation.

There are many small and compact Arm Linux SBCs, starting from the NanoPi NEO to the Raspberry Pi Zero or Rock Pi S, but lately a smaller board based on the MStar MSC313E Cortex-A7 SoC from BreadBee with a 64MB RAM appeared, enough to run embedded Linux.

Despite MStar MSC313E being a camera processor, the camera interface does not seem exposed in the board, so it looks to be designed to control I/Os over Ethernet. There’s no WiFi for now, but there may eventually be a future model that replaced the Ethernet jack with an Ampak WiFi module.

Source: https://www.cnx-software.com/2020/04/14/breadbee-tiny-embedded-linux-sbc-mstar-msc313e-camera-soc/

BreadBee specifications:

  • SoC – MStar MSC313E Arm Cortex-A7 processor @ ~1.0 GHz with NEON, FPU, 64MB DDR2
  • Storage – 16MB SPI NOR flash
  • Networking – 10/100M Ethernet (RJ45)
  • USB – 1x Micro USB 2.0 port
  • Expansion
    • 24-pin dual-row header (2.54mm pitch) with  SPI, I2C, 4x 10-bit ADC, 3x UART, GPIOs
    • 21-pin header (1.27mm pitch) with SD/SDIO, USB 2.0, GPIOs
  • Misc – RTC, Watchdog timer
  • Power Supply – 5V via micro USB port
  • Dimensions – 32 x 30mm

Source: https://www.cnx-software.com/2020/04/14/breadbee-tiny-embedded-linux-sbc-mstar-msc313e-camera-soc/

Raspberry Pi increase in IoT significance

More and more engineers and technology providers believe that it is suitable for industrial applications in the real world. Over the past few years, there has been a lot of discussion about the use of Raspberry Pi in industry, most of which emphasize that Raspberry Pi is a great tool for engineering experiments, but not so much for industrial applications in the real world. While it is true that the Raspberry Pi is not considered the best choice for mission-critical applications, it is also true that the Raspberry Pi is no longer a platform for experimentation.

Latest Raspberry Pi 4 development board, equipped with a 1.5GHz quad-core 64-bit ARM Cortex-A72 processor (approximately 3 times better performance than previous Cortex-A53 powering Raspberry Pi 3+ Model B and Compute Module 3 and 3+). can be chosen from 1GB / 2GB / 4GB LPDDR4 SDRAM options.

Raspberry Pi 4 continues the tradition of one of the most versatile and cheapest computer devices. It can be used for virtually anything from proprietary IoT solutions to a full-fledged desktop computer. The new Malinka has two micro-HDMI ports, a Gigabit Ethernet port, two USB 3.0 type A ports and two USB 2.0 type A ports.

Industrial use of Raspberry Pi 4

A year ago, TECHBASE released an updated version of the ModBerry M500 industrial IoT computer, replacing the aging Raspberry Pi 3 with a 3B+, giving it better performance. With the recent launch of the Raspberry Pi 4, TECHBASE has yet again, announced another upgrade to the M500, which now packs the latest single-board computer.

Raspberry Pi 4, with 2xHDMI, Gigabit Ethernet and 2xUSB3.0
Raspberry Pi 4, with 2xHDMI, Gigabit Ethernet and 2xUSB3.0

Over 10 million Raspberry Pi’s have been sold and the Raspberry Pi is likely to stay as a new standard in the industry. Official Raspbian OS is free operating system based on Linux Debian optimized for the Raspberry Pi comes with over 35,000 packages, pre-compiled software bundled in a nice format for easy installation. ModBerry devices are compatible with Raspberry Pi accessories, supported by Raspberry Pi Foundation. ModBerry M500 now with Raspberry Pi 3 Model B+ / Raspberry Pi 4 Model B support.

AI influence on IoT developers and their working installations

The RAK2287 is a mini-PCIe LPWAN hub module based on the Semtech SX1302 that can be easily integrated with existing routers and other networking equipment with LPWAN gateway capabilities. It can be used on embedded platforms that offer a free mini PCIe slot with SPI connector. In addition to LPWAN functionality, the module is equipped with a ZOE-M8Q GPS chip that provides GNSS functionality.

This module is an exceptional, complete, and cost-efficient gateway solution offering up to 10 programmable parallel demodulation paths, an 8 x 8 channel LoRa® packet detector, 8 x SF5-SF12 LoRa® demodulators and 8 x SF5-SF10 LoRa® demodulators. It is capable of detecting an uninterrupted combination of packets at 8 different spreading factors and 10 channels with continuous demodulation of up to 16 packets. The module is well suited for Internet-of-Things (IoT) applications, that require node density of up to 500 nodes per km² in an environment with moderate interference.

Source: https://www.semtech.com/company/press/semtech-releases-a-new-portfolio-of-solutions-lora-edge-to-simplify-and-accelerate-iot-applications
LoRaWAN RAK2287 concentrator module

LoRa RAK2287 features

RAK2287 key features and specifications:

  • LoRa Connectivity:
    • Semtech SX1302 LoRa Transceiver with 2x SX1250 Tx/Rx front-end
    • Tx power – up to 27dBm
    • Rx sensitivity – down to -139dBm @ SF12, BW 125 kHz
    • LoRaWAN® 1.0.2 compatible.
    • LoRa band coverage – RU864, IN865, EU868, AU915, US915, KR920, AS923
    • 1x iPEX antenna connector for LoRa
  • GNSS – GPS / QZSS, BeiDou, Galileo, and GLONASS via U-blox ZOE-M8Q GPS SiP; 1x iPEX antenna connect for GPS

Source: https://www.cnx-software.com/2020/08/06/rak2287-mini-pcie-lorawan-concentrator-module-supports-up-to-500-nodes-per-km2/

Use of LoRa in industrial automation

Use of wireless connection makes life and work easier for us every day – from radio stations and GSM to Wi-Fi wireless networks, Zigbee, short-range Bluetooth connectivity and LoRa. With the spread of internet access, the possibility of using wireless connectivity for a new type of service and application has opened. Terminology such as M2M (Machine to Machine) – remote communication between devices and IoT – a network of applications and devices communicating with the Internet have been created.

Device equipped with LoRa module is delivered with a LoRaWAN protocol stack, so it can be easily connected to the existing, fast-growing LoRa Alliance infrastructure – both in privately managed local area networks (LAN) and public telecommunications networks to create wide area low power WAN (LPWAN) on a national scale. LoRaWAN stack integration also allows connection to any microcontroller, such as LoRa Gateway industrial device from TECHBASE.

Aries Embedded announced one of the first computing modules with the SoF PolarFire function. It is equipped with a Linux RISC-V SoC chip with a Microchip Microsemi FPGA processor. The M100PFS has the same dimensions of 74 x 42 mm as the similar M100PF module from Aries and is equipped with PolarFire FPGAs without RISC-V core for Linux.

The two major M100PFS SKUs are:

  • M100PFS-025ADA0 — MPFS025T FPGA with 23K LE, 68 math blocks, 4x SERDES; 1GB LPDDR4 RAM for HMS (RISC-V/Linux); 4GB eMMC
  • M100PFS-250AECC — MPFS250T FPGA with 254K LE, 784 blocks, 16x SERDES; 4GB LPDDR4 each for HMS and FPGA; 8GB eMMC

Source: http://linuxgizmos.com/linux-powered-module-charges-up-the-risc-v-polarfire-soc/

Aries’ M100PFS a competition for Raspberry Pi 4 in IoT
M100PFS

PolarFire SoC from Microchip combines the previously introduced PolarFire FPGA card with 4x RISC-V U54-MC SiFive core. Microchip claims that PolarFire SoCs are superior to hybrid SoCs with an arm / FPGA, such as Xilinx Zynq, with more configurable and open RISC-V designs, lower power consumption and much better real-time deterministic functions. I am In December, the company called it „the first FPGA SoC chip with deterministic and consistent RISC-V processor clusters and the deterministic L2 memory subsystem enabling the use of Linux and real-time applications.”

Industrial use of market Raspberry Pi 4 SBCs

A year ago, TECHBASE released an updated version of the ModBerry M500 industrial IoT computer, replacing the aging Raspberry Pi 3 with a 3B+, giving it better performance. With the recent launch of the Raspberry Pi 4, TECHBASE has yet again, announced another upgrade to the M500, which now packs the latest single-board computer.

ModBerry M500 with Raspberry Pi’s 4

ModBerry M500 also utilizes many more SBC platforms, such as Orange Pi, NanoPi and Intel-based UpBoard. Find more information here: https://iiot-shop.com/product/modberry-m-series/

ONiO.zero running without battery can revolutionize the IoT market

ONiO, a Norwegian specialist in the field of the Internet of Things (IoT) for the medical industry, announced ONiO.zero, a RISC-V-based microcontroller with very low power consumption, which can work completely from the energy harvested from the environment. ONiO claims that its design can take energy from the radio spectrum and operate up to 24 MHz.

„ONiO.zero is a wireless MCU with very low power consumption, which uses energy acquisition technology,” wrote the company about its creation. This means that ONiO.zero only works on ambient energy. There are no coin cells, supercaps, lithium and batteries, but still offers a lot of performance.

Battery-based solutions have an unavoidable warning about battery replacement. This leads to increased costs over the entire lifetime. ONiO.zero avoids this problem and reduces operating costs. ONiO.zero is self-powered and supports a wide range of power sources, from multi-frequency RF bands supporting GSM and ISM to optional external sources such as solar, piezoelectric, thermal and voltaic.

Source: https://www.hackster.io/news/onio-zero-offers-up-to-24mhz-of-risc-v-microcontroller-performance-on-nothing-but-harvested-energy-70285321d50d

The microcontroller itself is based on the architecture of the RISC-V instruction set of the open source type (in particular RV32EMC) and operates up to 24 MHz with a supply voltage of 1.8 V. The controller will work if necessary with lower voltages. You can get 6 MHz at 1 V and 1 MHz at 0.8 V, and the system still runs slower, but as fast as 450 mV. Includes 1 KB ROM and 2 KB RAM, as well as 8-32 KB of ultra low power flash memory, capable of 100,000 read and write cycles up to 850 mV.

ONIO.zero running without battery can revolutionize the IoT market

ONiO.zero contains a crystalline Low Energy Bluetooth transmitter (BLE) that can operate at a voltage as low as 850mV, an IEEE 802.15.4 (UWB) broadband transmitter operating in the 3.5-10 GHz band, and optional radio transmitter 433 MHz MICS for the industrial, scientific and medical band (ISM).

ONiO.zero hasn’t been released yet. For more information check the ONiO.zero product page.

Battery-ready IoT devices based on ESP32

Battery / SuperCap power support allows the processes and data to be securely executed, saved or transferred, and the operating system to be safely shutdown or reboot, if the power source has been restored. The power failure alert can also be sent to cloud service, to perform custom task, specified by user or self-learning AI algorithm.

The Moduino device is a comprehensive end-point controller for variety of sensors located throughout any installation. It fully supports temperature and humidity sensors and new ones are currently developed, e.g. accelerometer, gyroscope, magnetometer, etc.

Battery powered Moduino ESP32
Battery powered IoT installation. Source: https://moduino.techbase.eu/

ModuinoModBerry symbiosis allows wide range of wake-up/sleep schedule customization, in order to perform best and save energy accordingly to power supply state. Arduino and MicroPython environments provide libraries to control different scenarios of data and power management.

With built-in algorithms and the possibility to program on your own, the TECHBASE’s sleep/wake addon module can wake the device using schedule/timer. Another option is wake on external trigger, e.g. change of input, etc. All the options for sleep, shutdown and wake can be configured for various scenarios to ensure constant operation of devices, safety of data and continuity of work in case of power failure in any installation.

NarrowBand-IoT the new black of Industrial IoT

The NB-IoT is becoming a standard in wireless communication of IoT devices, for standalone solutions and complex installations with thousands of units, coordinated with gateways. Will NarrowBand-IoT replace other wireless technologies in industrial automation?

What exactly is NarrowBand?

NarrowBand-IoT (NB-IoT) is a radio technology in the field of LPWAN (Low Power Wide Area Network) dedicated for IoT devices, operating on the licensed frequency band used by telecommunications operators.

The biggest advantages of NB-IoT include:

  • long battery life (up to 10 years),
  • efficiency in the amount of data transferred,
  • intra-building penetration,
  • the ability to connect even tens of thousands of devices in one system,
  • a global standard,
  • a high level of security and low cost

You can build mass solutions and those that until now were considered unprofitable. NB-IoT technology works in the licensed band, so there is no risk of interference and blocking communication by competing networks.

The service life of devices powered by two AA batteries is up to 10 years. However, the devices themselves are constructed in such a way that they can work for many years without the need for technical supervision and recharging the battery.

NB-IoT used in industrial solutions

One of many uses of NarrowBand-IoT wireless modems can be communication of edge devices, dedicated to data management, process control (e.g. with MQTT protocol) and monitoring. Latest ESP32-based eModGATE controller from TECHBASE company is a series utilizing MicroPython environment to provide data management solutions for end-points applications. The eModGATE has built-in Wi-Fi/BT modem and can be equipped with additional NarrowBand-IoT modems

eModGATE eqipped with wireless NB-IoT modem are perfect for industrial automation solutions, e.g. data logging, metering, telemetrics, remote monitoring, security and data management through all Industrial IoT applications.

Supported bandwidths:

  • Global-Band LTE CAT-M1:  B1/B2/B3/B4/B5/B8/B12/B13/B18/B19/B20/B26/B28/B39;
  • Global-Band LTE CAT NB-IoT1:  B1/B2/B3/B5/B8/B12/B13/B17/B18/B19/B20/B26/B28;
  • GPRS/EDGE 850/900/1800/1900Mhz Control Via AT Commands

Supported data transfer:

  • LTE CAT-M1(eMTC) – Uplink up to 375kbps, Downlink up to 300kbps
  • NB-IoT – Uplink up to 66kbps, Downlink up to 34kbps
  • EDGE Class – Uplink up to 236.8Kbps, Downlink up to 236.8Kbps
  • GPRS – Uplink up to 85.6Kbps, Downlink up to 85.6Kbps

The latest research results from IoT Newark developers reveal that 49% of respondents use AI in their IoT applications. There is also a growing concern about user privacy and the more frequent introduction of ready equipment.

35% of respondents think security is the major concern for any IoT implementation, mainly due to the type of data collected from the things (machines) and humans, which is very sensitive & personal. We can expect to see more and more encryption everywhere. Businesses who initiate IoT projects treat IoT security as their top priority.

SBCs the main platform for Industrial IoT

SBC is still the preferred hardware foundation for IoT gates, then 54%, followed by personal projects (30%) and silicon supplier platforms (13%). It is unclear whether the latter includes a commercial computing module. As shown in the graph above, many IoT programmers need third party help, especially for edge-to-cloud communication.

About 45% of respondents use environmental sensors for IoT devices, followed by motion sensors (26%) and optical / image sensors (15%). WiFi (67%) is the most popular wireless technology in Internet of Things projects. The next places are Low cellular energy and Bluetooth, followed by LoRa at 21%. The survey results also include responses to programming languages, cloud platforms, IoT data, project motivation and more.

Artificial Intelligence influencing Industrial IoT

From the end of 2017 to 2018, artificial intelligence-specific processors (AI) began to appear on mobile devices. The goal is to make smartphones more intelligent. As GPUs shrink, AI-related equipment becomes necessary for the Internet of Things.

Support for enterprises from platforms such as Google TensorFlow will be introduced in 2020 with equipment adapted to artificial intelligence. TensorFlow is already optimized for mobile devices and can be quickly launched on single-board computers. In many ways, AI frameworks are better than other mobile frameworks, such as ReactJS. The AI structure is not designed to work with the user interface. It’s perfect for the Internet of Things.

Until the end of 2020, artificial intelligence will be as important for IoT devices as the cloud.

IoT Security with latest SLM 9670 Industrial Grade TPM 2.0

Like other embedded systems, Industrial IoT design faces a constant stream of threats. As hackers adopt new attacks, developers rush to close security holes. Deployed devices need to update IoT firmware, increasing potential security vulnerabilities. For example, using a simple firmware verification check can leave the software published. In this situation, the developer may expect to be able to query external resources for verification and catch attempts to replace the firmware with hacked code. However, even relatively novice hackers can replace the firmware with code that ignores such verification checks. To secure these vurnerabilities comes Industrial Grade TPM 2.0.

Securing devices with Infineon industrial grade TPM

Infineon Technologies AG has unveiled a new security chip that defines the first TPM (Trusted Platform Module), designed specifically for industrial applications such as industrial computers, servers, industrial controllers and edge gates. The module protects confidential data in connected devices and reduces the risk of leakage of this information due to attacks, e.g. hackers.

The OPTIGA TPM SLM 9670 module protects the integrity of industrial systems and the identity of users using them. The system controls access to sensitive data at key locations in industrial environments, such as an automated factory. It also protects the cloud interface if the network uses one. The security system fully meets the TPM 2.0 standard developed by the Trusted Computing Group and is certified by an independent test laboratory in accordance with the criteria contained in this standard. The new module is meticulously controlled and certified by Infineon. Thanks to its use, it is possible to shorten the time of designing and introducing the device to the market, thanks to the ready security solution in the system.

The TPM system has a lifetime declared as 20 years. It allows programmers to perform firmware updates, which in turn enables them to meet the long-term security requirements in rapidly changing industrial environments. In this way, it can also reduce maintenance costs of industrial equipment thanks to secured remote software updates. The TPM chip will be available in serial production in the second half of 2019.

TPM 2.0 Key Features

  • Random Number Generator (RNG) according to NIST SP800-90A
  • TPM FW update functionality installed
  • 6962 Bytes of free NV memory
  • Full personalization with Endorsement Key (EK) and EK certificate
  • Up to 3 keys in the volatile memory
  • Up to 7 keys in the NV memory
  • Up to 8 NV counters
  • Support of various cryptographic algorithms:
    • RSA-1024 and RSA-2048
    • SHA-1 and SHA-256
    • ECC NIST P256
    • ECC BN256

Security chip implementation in Industrial IoT devices

With knowledge of latest Industrial IoT security measures, the choice of proper end-point conroller or gateway is much easier than you think. Some manufacturers can implement TPM 2.0 security chip in production process, to allow users to generate certification keys after purchase, maximizing security of their installations. TECHBASE offers wide range of solutions, optionally aided with TPM system.

For example, ESP-32 based solution, Moduino X series and eModGATE series products offer the support for such security measures. Read more in Industrial IoT Ecosystem brochure, to understand the importance of reliable and secure hardware for Industrial IoT.