Wpisy

The wM-Bus or Wireless Meter Bus is a European standard (EN 13757-4) that defines communication between usability meters and data loggers, hubs or intelligent meter gates. Based on the M-Bus wireless bus, a new advanced measurement infrastructure (AMI) was developed to meet the needs of media meters across Europe. Several years have passed since M-Bus and sub-GHz wireless connections were introduced, but they are still evolving in response to changing environments and taking advantage of technological advances, including the emergence of the Internet of Things.

2.4 GHz band vs unlicensed bands

Wireless communication over long distances is a requirement for intelligent network devices. These frequencies are unlicensed and provide better radio wave propagation than 2.4 GHz. In Europe, the most common frequencies are 868 MHz, 434 MHz and 169 MHz. These unlicensed bands can be used to reach difficult areas, such as underground meters or the location of buildings with many walls and obstructions. In addition, utilities have lower solution costs when operating in the unlicensed band.

COVID-19 and wireless technologies

The use of wireless technologies during COVID-19 pandemic hazards is often a necessity, to prevent the virus from spreading. One of obvious choices for Internet of Things and home monitoring is Wireless M-Bus implementation.MODUINO series expansion options now include TECHBASE’s high-performance Wireless M-Bus module.

For low power applications using either the specifically allocated 169 MHz metering band or the 868 MHz ISM band, the module can be configured as an embedded micro system or simple data modem. For Industrial IoT applications, the device can be configured for interoperability in a WMBus network.

In terms of covered area and power consumption, the RF implementation ensures best-in-class performance. On the 169 MHz band, the output power can be increased up to +30 dBm (+27 dBm on the optimized version for maximum power efficiency) and up to +15 dBm on the 868 MHz band. The extremely reduced power consumption gives access to long lasting battery life requirements (up to 2 μA in sleep mode for wireless M-Bus modules with an RTC clock running).

It is possible to make Moduino devices equipped with a WMBus stack that Embit developed specifically for the ESP32 platform, allowing them to be integrated in any desired system, without effort, and simplifying interactions in WMBus networks.

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.

The wM-Bus or Wireless Meter Bus is a European standard (EN 13757-4) that defines communication between usability meters and data loggers, hubs or intelligent meter gates. Based on the M-Bus wireless bus, a new advanced measurement infrastructure (AMI) was developed to meet the needs of media meters across Europe. Several years have passed since M-Bus and sub-GHz wireless connections were introduced, but they are still evolving in response to changing environments and taking advantage of technological advances, including the emergence of the Internet of Things.

2.4 GHz band vs unlicensed bands

Wireless communication over long distances is a requirement for intelligent network devices. These frequencies are unlicensed and provide better radio wave propagation than 2.4 GHz. In Europe, the most common frequencies are 868 MHz, 434 MHz and 169 MHz. These unlicensed bands can be used to reach difficult areas, such as underground meters or the location of buildings with many walls and obstructions. In addition, utilities have lower solution costs when operating in the unlicensed band.

COVID-19 and wireless technologies

The use of wireless technologies during COVID-19 pandemic hazards is often a necessity, to prevent the virus from spreading. One of obvious choices for Internet of Things and home monitoring is Wireless M-Bus implementation.MODUINO series expansion options now include TECHBASE’s high-performance Wireless M-Bus module.

For low power applications using either the specifically allocated 169 MHz metering band or the 868 MHz ISM band, the module can be configured as an embedded micro system or simple data modem. For Industrial IoT applications, the device can be configured for interoperability in a WMBus network.

In terms of covered area and power consumption, the RF implementation ensures best-in-class performance. On the 169 MHz band, the output power can be increased up to +30 dBm (+27 dBm on the optimized version for maximum power efficiency) and up to +15 dBm on the 868 MHz band. The extremely reduced power consumption gives access to long lasting battery life requirements (up to 2 μA in sleep mode for wireless M-Bus modules with an RTC clock running).

It is possible to make Moduino devices equipped with a WMBus stack that Embit developed specifically for the ESP32 platform, allowing them to be integrated in any desired system, without effort, and simplifying interactions in WMBus networks.

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.

The wM-Bus or Wireless Meter Bus is a European standard (EN 13757-4) that defines communication between usability meters and data loggers, hubs or intelligent meter gates. The M-Bus wireless bus has been developed as a standard to meet the needs of the European network of media meters and remote reading systems and forms the basis of a new advanced measurement infrastructure (AMI). The frequency of M-Bus and sub-GHz wireless connections has been used for several years, but is still evolving to adapt to changing environments and take advantage of technological advances, including the emergence of the Internet of Things.

2.4 GHz band vs unlicensed bands

Intelligent network devices require robust long-range wireless communication. The most common frequencies are around 868 MHz, 434 MHz and 169 MHz, which are unlicensed bands in Europe and offer better radio wave propagation compared to 2.4 GHz. By using one of these unlicensed bands, radio waves can reach difficult areas such as underground meters or the location of buildings with many walls or obstacles. Another advantage of operating in the unlicensed band is that utilities have lower solution costs.

COVID-19 and wireless technologies

In times of COVID-19 pandemic hazards, the use of wireless technologies is often a must, to prevent further spread of the coronavirus. One of obvious choices for Internet of Things and home monitorng is Wireless M-Bus implementation.

TECHBASE has added high performance module for Wireless M-Bus connectivity and multi-hop networking into Moduino series expansion options. The module is configured as an embedded micro system or simple data modem for low power applications in the metering specifically allocated band of 169 MHz or in the ISM band of 868 MHz. The device is can be configured for interoperability in a WMBus network for Industrial IoT applications.

The RF implementation guarantees best-in-class performance in terms of covered area and power consumption. The output power can be increased up to +30 dBm on the 169 MHz band (+27 dBm on optimized version for highest power efficiency) and up to +15 dBm on the 868 MHz band. The extremely reduced power consumption gives access to long lasting battery life requirement (up to 2 μA in sleep mode for wireless M-Bus module with an RTC clock running).

The Moduino devices  can be provided with a W-MBus stack specifically developed by Embit for the platform that allows to integrate the module in the desired system without effort and simplify the interaction in WMBus networks.

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.

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 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.

The wM-Bus or Wireless Meter Bus is a European standard (EN 13757-4) that defines communication between usability meters and data loggers, hubs or intelligent meter gates. The M-Bus wireless bus has been developed as a standard to meet the needs of the European network of media meters and remote reading systems and forms the basis of a new advanced measurement infrastructure (AMI). The frequency of M-Bus and sub-GHz wireless connections has been used for several years, but is still evolving to adapt to changing environments and take advantage of technological advances, including the emergence of the Internet of Things.

COVID-19 and wireless technologies

In times of COVID-19 pandemic hazards, the use of wireless technologies is often a must, to prevent further spread of the coronavirus. One of obvious choices for Internet of Things and home monitorng is Wireless M-Bus implementation.

TECHBASE has added high performance module for Wireless M-Bus connectivity and multi-hop networking into Moduino series expansion options. The module is configured as an embedded micro system or simple data modem for low power applications in the metering specifically allocated band of 169 MHz or in the ISM band of 868 MHz. The device is can be configured for interoperability in a WMBus network for Industrial IoT applications.

2.4 GHz band vs unlicensed bands

Intelligent network devices require robust long-range wireless communication. The most common frequencies are around 868 MHz, 434 MHz and 169 MHz, which are unlicensed bands in Europe and offer better radio wave propagation compared to 2.4 GHz. By using one of these unlicensed bands, radio waves can reach difficult areas such as underground meters or the location of buildings with many walls or obstacles. Another advantage of operating in the unlicensed band is that utilities have lower solution costs.

The RF implementation guarantees best-in-class performance in terms of covered area and power consumption. The output power can be increased up to +30 dBm on the 169 MHz band (+27 dBm on optimized version for highest power efficiency) and up to +15 dBm on the 868 MHz band. The extremely reduced power consumption gives access to long lasting battery life requirement (up to 2 μA in sleep mode for wireless M-Bus module with an RTC clock running).

The Moduino devices  can be provided with a W-MBus stack specifically developed by Embit for the platform that allows to integrate the module in the desired system without effort and simplify the interaction in WMBus networks.

The cellular infrastructure that enables wireless communication is updated approximately every 10 years. Currently, 5G is gradually replacing 4G worldwide. The main difference between 4G and 5G is speed. 5G is expected to be much faster than 4G, while having lower latency and greater bandwidth.

In most conversations about 5G, speed is often the specification that sets it apart from 4G. And that makes sense. Because each generation of cells is much faster than before. 4G can now reach speeds of up to 100Mbps, but actual performance is typically below 35Mbps. 5G can be 100 times faster than 4G, with a theoretical maximum speed of around 20Gbps and current real speeds of 50Mbps to 3Gbps.

But it’s a little more complicated than that. There are three main flavors of 5G, and each one has its own speed. The so-called low-band 5G is somewhat faster than 4G with performance around 50-250 Mbps. The fastest version of 5G, called high-band 5G, is the version that reaches 3 Gbps.

Source: https://www.businessinsider.com/4g-vs-5g?IR=T

Latency and coverage of 5G network

The delay of 4G networks is currently around 50ms, but 5G networks are expected to reduce it to an impressive 1ms. Latency reduction is important for many applications that allow connected devices to rely on the cloud for computing. For example, self-driving cars that use 5G to allow cloud-based AI to make real-time navigation decisions.

Even 10 years after 4G, there are remote and rural areas around the world where 4G coverage is insufficient. As 5G is still in its infancy, its coverage is essentially non-existent except in a few major cities. 5G takes years to reach levels of coverage similar to 4G, with different implementations (5G highband, midband, and lowband), each with its own speed and bandwidth.

5G modem support for Raspberry Pi

With latest premiere of Raspberry Pi Compute Module 4 some companies introduced new IoT devices, that utilize the processor module and allow usage of high-end cellular modems, such as 5G. TECHBASE developed their top product, ModBerry 500 CM4, to be a perfect IoT solution and expansion platform for latest wireless communication modules and such technologies as M.2 NVMe SSD support.

ModBerry 500 CM4 can be ordered here: https://iiot-shop.com/product/modberry-500-cm4/