All posts tagged: Internet of things

Intel’s Internet-of-Things gateway solutions and gateway development kits offer business IoT users a valuable solution for enabling IoT connectivity with existing industrial equipment or other legacy systems.

These gateway solutions are the result of a collaboration between Intel, McAfee and Wind River, aiming to provide IoT developers with pre-integrated and pre-validated hardware and software building blocks for gateways in IoT networks.

Intel’s gateway ecosystem provides hardware and software components that enable security, manageability and connectivity in your IoT deployment – along with ease-of-use. The technology supports a wide range of operating systems and hardware options to provide developers with choice and flexibility, making it easier for businesses to integrate with new or existing sensors, cloud partners and management solutions.

The incorporation of McAfee Embedded Control security technologies into Intel’s platform integrates the hardware-based security of Intel processors with operating system and application software security, keeping your data secure from the network edge to the cloud.

These gateways can connect legacy systems with the network, enabling seamless and secure data flow between edge devices and cloud computing or other Internet-based IoT services. Employing gateways to connect legacy hardware (without native Internet connectivity) to IoT networks enables businesses to unlock the value of big data and analytics from IoT-connected industrial machines and equipment without having to invest in replacing or upgrading this plant.

Intel’s IoT Platform, including gateways, makes it easier to manage your end-to-end IoT solution, and to enable analytics and secure performance to turn data at the network edge into action and business intelligence, delivering real commercial value.

Enterprise IoT solutions based on Intel’s powerful IoT Gateway Technology provide leading performance and security, enabling near-real-time analysis and tighter, more efficient process controls.

Furthermore, Intel’s hardware partners manufacture many different gateways compatible with the Intel IoT platform – with these designs covering a range of different industry verticals for industrial IoT users.

For example, if you’re working on an automotive application, you may look at one of several choices from Intel’s partners that specialise in IoT gateway hardware for transportation or automotive use.

Intel gateways are available with a range of processors, from single-core up to quad-core options. Generally the more powerful multi-core platforms feature increased RAM and flash storage capacity. The operating system and software ecosystem is also important to consider, since capitalising on the multicore processor requires appropriate programming to deliver the best performance.

The purpose of a gateway is to connect many sensors and devices together with different interfaces and aggregate their data and communications to the IoT network at a single point. This means that the I/O hardware available on the gateway is another important factor when choosing the right gateway for your application, to ensure you can connect with your sensors and devices.

Intel IoT Gateway Technology can efficiently aggregate and filter data at the network edge, allowing businesses to analyse and act upon information closer to its source, and in near real time. To deliver the most transformative business value, gateways need to be intelligent and have sufficient processing power to enable filtering, aggregation and end-to-end analytics on large volumes of data.

Processing and filtering data and performing some analytics on the gateway processor, close to the network edge, also reduces the amount of data that needs to be transmitted, reducing bandwidth costs. All these features help enable business users to realise the greatest possible value from the IoT.

Intel IoT gateways support a range of different interfaces, including Bluetooth, 802.15.4/ZigBee or 6LoWPAN, CAN bus, ModBus and many more. The choice of hardware I/O interfaces is particularly important where the goal is to interface legacy equipment – which may interface over RS-485, ModBus, CAN, industrial Ethernet, ZigBee or other protocols – to the IoT network.

The flexibility of an IoT gateway is particularly valuable in this kind of application, allowing existing machinery and legacy systems to be connected to IoT analytics and cloud computing at a relatively low cost.

Intel’s IoT Gateway Platform supports a range of different operating systems, including Windows 10 IoT and Snappy Ubuntu Core, so users who prefer either Windows or open-source Linux ecosystems are accommodated.

Wind River Linux 7 is also supported, including integration with Wind River’s other IoT tools and development tools such as Wind River Workbench, Helix Device Cloud and Helix App Cloud. It’s available preconfigured with Wind River Helix Device Cloud agent, providing cloud connectivity to facilitate device configuration, file transfers, data capture, and a rules engine for analytics.

To support this hardware and software ecosystem for the IoT in an easy-to-use and accessible way, Intel provides in-depth documentation, tools and resources. With built-in tutorials in the Wind River Intelligent Device Platform, you can quickly begin working with tools like Wind River’s Helix App Cloud.

To help with ease of administration and device management, Intel provides MeshCentral, a free and open-source solution for managing all types of devices across a wide variety of operating systems and processor types.

This solution is secure, customisable and easy to install, and it allows users to maintain ownership and control of all their own data. The MeshCentral device management system makes it easier to get legacy devices connected to the cloud, and it is fully interoperable with Intel’s gateway technology and the rest of their IoT ecosystem, making it easy to manage your Intel IoT gateways and other devices.

As an example of Intel’s IoT Gateway Technology at work in a real-world IoT deployment, Intel is working with Cleantech San Diego and other organisations to demonstrate how solutions using Intel’s technology can help optimise water and energy usage in commercial buildings.

At the Port of San Diego, the Intel IoT Gateway-based solution monitors HVAC power, lighting and energy use, resulting in cost savings and reduced greenhouse gas emissions.

As you can imagine, there are many options to consider in the hardware, software and implementation areas of your next Internet of Things project.

And this is where the LX Group us ready to work with you. We have end-to-end experience and demonstrated results in the entire process of IoT product development, and we’re ready to help bring your existing or new product ideas to life. Getting started is easy – click here to contact us, telephone 1800 810 124, or just keep in the loop by connecting here.

LX is an award-winning electronics design company based in Sydney, Australia. LX services include full turnkey design, electronics, hardware, software and firmware design. LX specialises in IoT embedded systems and wireless technologies design.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

Here at the LX Group we investigate many Internet of Things platforms for research and fit-for-purpose testing, and one of these is the new hardware and software ecosystem has been announced by the Arduino team in Italy.

They have recently released and announced a number of new products and services specifically aimed at enabling cloud-connected wireless solutions and other Internet-of-Things applications, including the MKR1000 develpoment board, their IoT Development Environment, and a companion Community Project Platform.

Their new MKR1000 is a tiny, feature-packed board based on Atmel’s ATSAMW25 module, which incorporates a IEEE 802.11 radio certified by the Wi-Fi Alliance along with a low-power ARM Cortex-M0+ 32-bit microcontroller.

With a much smaller form-factor than traditional Arduino boards, along with 32-bit ARM performance and built-in wireless networking, the MKR1000 offers a LiPo battery charging circuit and on-board cryptographic support, making it an Internet-connected platform that is compact, powerful, secure and battery-ready – ideally suited for the burgeoning Internet-of-Things market.

To promote the new board, Arduino will team up with Microsoft to give away 1000 units to makers who submit project ideas based on the platform. The new board “offers the ideal solution for Makers seeking to add Wi-Fi connectivity with minimal previous experience in networking”, according to the team.

Arduino has also recently announced their new project and tutorial platform, the Arduino Project Hub, as the place to go for Arduino users to host and share their projects and experiences.

As with the the recent “World’s Largest Arduino Maker Challenge” competition alongside Microsoft, the Arduino Project Hub has been developed by Arduino in partnership with hackster.io, and this official partnership between Arduino and another commercial entity – telling the community that this is “the place” where your Arduino projects are supposed to be hosted and shown off – is an interesting move for the Arduino company and the Arduino community.

It is not just the new networking-oriented Arduino MKR1000 hardware platform that has made Arduino’s push towards the Internet of Things obvious in their recent announcements. Among the new Web properties that Arduino has announced is Arduino IoT, hosting a collection of Arduino-oriented tutorials and guidance for people who want to get started with Internet-of-Things development.

With this, Arduino aims to create a new platform to “make building IoT devices as easy as blinking a LED”, providing a range of inspirational examples and tutorials based on the Arduino and Genuino MKR1000 platform, ranging from a simple Telegram Bot to a more complex smart thermostat.

Another key part of Arduino’s push towards IoT and connected applications is the new Arduino Cloud environment. Arduino Cloud is designed around the new MKR1000 board, although it also supports the more modern of the official Arduino Wi-Fi Shields (which like the MKR1000 has on-board cryptographic support).

Arduino Cloud allows you to connect your Arduino directly to Web services and other Internet- or cloud-based applications using MQTT as the messaging protocol. It can also connect messages across the Internet from one Arduino device to another.

At the moment the Arduino Cloud environment is in an early alpha release, and it is claimed to currently have “one percent of the features” that will be implemented in the final product. Although it is still in development today, it will be interesting to see how having cloud capabilities natively included in the official Arduino ecosystem will potentially affect similar, competing environments such as Particle Cloud.

We’re already seeing a consolidation of board support around the Arduino development environment, with many different kinds of hardware platforms from different manufacturers all being unified by common compatibility with the Arduino IDE, especially with the more advanced Board Manager functionality that is included in the current revision of the Arduino IDE.

Now the Arduino Cloud platform could potentially bring this same unification to the cloud and Internet applications side of the IoT, with a common cloud platform that is compatible with all those different hardware products.

The Arduino Create platform is another exciting new addition to the Arduino ecosystem that has recently been announced – a Web-based development environment for Arduino projects. This new environment is still in private beta, with the development team refining the Web-based code editor based on feedback from the beta cohort, but we’re told that it is almost ready.

This platform promises to replace the familiar Arduino IDE – which inherits many legacy elements, both good and bad, from Wiring on which is is based – with a modern, flexible, Web-based toolchain. Using a browser plugin, the new environment will allow you to write code and upload sketches to any Arduino device connected to your computer, directly from the Web browser.

It will also store your sketches and allow you to connect to services in the cloud. Other attempts at cloud-based development environments have been unpopular in some cases, since users are sceptical of having their files and work potentially disappear with a defunct company or become suddenly locked up behind a paid subscription model in the future, without users having local possession of their own files.

However, given Arduino’s long-standing commitment to open-source free software for their development tools, these factors are unlikely to be a concern. Nevertheless, this is not a total recommendation – as each client has different needs that may require open or closed hardware and software solutions.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

With the growing interest in low-power wide-area wireless networks for Internet-of-Things and M2M applications, Microchip Technology has been rolling out a number of wireless solutions based on radio technologies such as LoRa – addressing requirements such as long-range connectivity, strong energy efficiency for long battery life, and low hardware cost to enable high-volume deployments.

LoRa is a wireless technology developed by Semtech Corporation, which utilises spread-spectrum modulation in sub-gigahertz UHF bands to enable wireless network connectivity over very long distances, with ranges on the order of 10 kilometres. This allows for extremely strong energy efficiency enabling wireless end-nodes that can operate on battery power for up to 10 years. LoRa networks also offer very high network capacity, with up to a million network nodes, high robustness, and localisation capability.

LoRa radio technology is ideally suited for battery-operated sensors, smart-city technologies, home and building automation, smart agriculture, wireless sensor networks, industrial automation technologies, and other similar M2M and Internet-of-Things applications where efficient battery use is important and network nodes may be separated over wide areas.

Microchip’s LoRa technology solutions are long-range, low-power solutions for network end nodes in IoT or M2M applications, and they’re ready to run out-of-the-box, with easy setup and configuration.

With the complete LoRaWAN protocol and RF regulatory certifications such as FCC certification provided for their modules, Microchip’s LoRa modules and solutions reduce time-to-market and reduce development costs for your connected, wireless products.

The LoRaWAN protocol is a low-power, wide-area networking (LPWAN) specification which complements LoRa technology, particularly aimed at wireless, battery-operated devices in regional, national or global networks.

LoRaWAN aims to address key requirements of M2M and Internet-of-Things applications, such as bidirectional communication, mobility, strong security, and localisation services.

The LoRaWAN protocol implements several layers of security features to ensure a high level of encryption and security is maintained across the entire embedded network. For example, a unique network session key ensures security at the network server level and a separate application session key, which is unique and also specific to a given end-node device, provides an extra layer of security at the application server level.

LoRaWAN aims to provide seamless interoperability between smart, LoRa-networked IoT “things” of different types, from different manufacturers, without the need for complex local installations.

Along with its advantages in long-range connectivity and power efficiency, this is just one of the ways that LoRa and LoRaWAN technology is aimed at further enabling the Internet of Things.

Microchip’s LoRa modules and transceiver solutions aim to provide a flexible, cost-effective platform for the creation of powerful wireless IoT solutions and products to meet customers’ needs.

Although these LoRa solutions from Microchip can be used alongside microcontrollers and components from other vendors, these devices and their supporting software examples and documentation are designed to be particularly complementary to Microchip’s popular PIC microcontrollers.

Microchip helps make it easy to build LoRa networks by providing almost-complete end-device modules that are certified for FCC and similar RF regulatory agencies. These LoRaWAN-equipped modules make it easy to connect to any LoRa Alliance certified gateway, from Actility, Cisco or Kirlink for example, and to connect to LoRa network services such as those provided by Actility or IBM.

The Microchip RN2483 LoRa module is a compact surface-mounted module which provides a built-in microcontroller, 14 GPIO pins, onboard ADC, a serial EEPROM for 64-bit MAC addressing, and the analog front end and RF matching transceiver for the transceiver.

These features integrated into the hardware module mean that an additional microcontroller may not be needed in many applications, and that no special RF design or layout expertise is needed to get you started building and deploying LoRa networks and products.

The LoRa radio in the RN2483 operates in the sub-gigahertz spectrum at either 433 MHz or 868MHz, making it compatible with different spectrum requirements across all international markets. These LoRa transceivers feature a very strong receive sensitivity of -148dBm, enabling connectivity over extremely long distances, and forward error correction is also implemented, helping to improve immunity to interference.

A unique spread-spectrum modulation scheme is used, helping to enable maximum range and maximum network capacity with minimum power consumption.

The RN2483 implements the LoRaWAN Class A protocol, enabling seamless connectivity to any LoRaWAN-compliant network infrastructure, whether public or privately deployed. It is the first LoRa module on the market to pass certification testing from the LoRa Alliance.

This module is specifically designed to make it easy to get started, accelerating your development and time to market. It is certified to the LoRaWAN 1.0 specification, ensuring that designers can quickly and easily integrate their edge-node devices into any LoRaWAN 1.0 compliant LoRaWAN network.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

Creating Internet-of-Things nodes and related hardware can be a challenge, however with new hardware such as Atmel’s latest SmartConnect SAMW25 Wi-Fi module – you get a low-power, pre-certified system-on-chip solution that is aimed at the needs of embedded computing, connected appliances and Internet-of-Things applications.

This highly integrated module offers an ideal solution for designers looking to easily integrate wireless connectivity into their products using a Wi-Fi platform with FCC precertification for the module.

The SAMW25 module is based on Atmel’s industry-leading WINC1500 Wi-Fi chipset combined with a 32-bit Atmel SMART SAM D21 microcontroller on the application processor side. This provides an all-in-one- solution that opens the door to wireless LAN connectivity for a wide range of battery-powered Internet-of-Things devices and applications that require an application processor with integrated Wi-Fi connectivity, without compromising on cost or power consumption.

With a compact 34 x 15mm footprint, the module is competitive with other Wi-Fi modules on the market in terms of size, RF performance and cost – but according to Atmel this platform is particularly strong in terms of its power consumption and power-saving modes compared to similar Wi-Fi modules on the market.

The WINC1500 Wi-Fi device includes everything you need at the physical layer for 2.4GHz IEEE 802.11 b/g/n support at up to 72 Mbps throughput, such as an integrated power amplifier, transmit-receive switch, and advanced signal processing that provides superior sensitivity and range.

The rest of the Wi-Fi stack includes TCP/IP on board, WEP and WPA/WPA2 encryption support, and support for Wi-Fi Direct, Soft-AP and station modes. The WINC1500 MAC layer is designed to minimise power consumption while also providing high data throughput.

The WINC1500 includes its own, independent 32-bit processor dedicated to the Wi-Fi networking functions. This processor provides many of the MAC functions, for example association, authentication, radio power management, security key management and frame aggregation or de-aggregation. This processor also provides flexibility for various modes of Wi-Fi operation, such as access point and station modes.

On the host microcontroller side, The SAM D21 microcontroller core runs at up to 48MHz, with 256kb embedded Flash and 32kB SRAM. This system-on-chip features convenient over-the-air Wi-Fi firmware upgrade capability, and SPI, UART and I2C interfaces.

The microcontroller is based on the ARM Cortex-M0+, building on ARM’s decades of innovation and experience in powerful yet energy-efficient microcontroller architecture.

This general-purpose microcontroller is ideal for many low-power, cost-sensitive industrial and consumer applications, running the application in one place integrated into the module alongside the Wi-Fi radio. In most cases, this system can run an Internet-connected application completely self-contained with no other microcontroller needed in the system.

A TCP/IP stack is provided onboard to handle the networking, along with DHCP and DNS network protocols and TLS (Transport-Layer Security), SSL and HTTPS support, enabling strong security in IoT networking applications. Atmel’s Wireless Simple Configuration (WSC) is also supported, making it easy to provision new devices on the network with their passwords and the like.

The microcontroller also provides a DMA and event-handling system and a full-speed USB peripheral device plus USB host. Six flexible serial communications modules are provided, along with a 12-bit ADC, 10-bit DAC and a hardware touch-sensing engine.

This rich and flexible set of peripherals, combined with the energy-efficient application processor and integrated Wi-Fi radio, make this platform an ideal all-in-one solution for a range of home automation, consumer, utility metering, industrial sensing and Internet-of-Things applications.

All these features are accessible via the Atmel Studio 6 development environment, making it easy to use the SAMW25 module and easy to get started developing software for your Wi-Fi connected products and IoT applications. You don’t need to have any previous experience working with the TCP/IP stack, 802.11 networks or RF hardware design.

Atmel also offers the Atmel SAMW25 Xplained Pro evaluation kit, their wireless hardware platform to help you evaluate and develop for the ATSAMW25 Wi-Fi system-on-chip module. This kit is supported by the Atmel Studio IDE, and it provides easy access to all the features of this device, explaining how to integrate this module into your custom design.

Additional peripherals are offered in the kit, extending the features of the module and making it easier to develop your custom designs – for example a USB serial port and Serial Wire Debug support for programming and run-time debugging of your software in the onboard SAM D21 microcontroller. No other programmers or external tools are required to program or debug the device, making it easy to get up and running quickly.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

Although many interested readers may have a focus on the hardware side of the Internet of Things, there is much that can be done with the data and software side as well. One interesting new and open-source solution is the Quarks framework from IBM.

Quarks is a framework for implementing and deploying edge analytics on a variety of different data streams and devices. Quarks allows you to push data analysis and machine learning out to “edge” devices in Internet-of-Things applications – for example, routers, gateways, sensors, appliances and machines at the edge of the network, rather than centralised servers.

This new system runs locally on gateways and edge devices, analysing their streams of data. This means these devices can perform analytics or make decisions based on the data they receive locally, resulting in faster responsiveness and reduced communications costs.

Quarks enables continuous streaming analytics on gateways and edge devices which can work together with centralised server-side systems to provide efficient and timely analytics across the whole network and the IoT ecosystem, from the centre out to the edge.

Performing some analysis of data at the network edge where this data is generated means that the amount of data that needs to be transmitted back to a central server is reduced, and the amount of data that needs to be stored is reduced. Quarks was developed to provide an SDK and an embeddable runtime for these kinds of streamable analytics applications on lightweight devices. It provides APIs and a lightweight runtime to allow you to build analytics for streaming data at the network-edge devices in IoT applications.

This means that Quarks enables you to process data locally – in a lightweight device such as an embedded computer in a car engine, an Android phone, or a lightweight platform such as a Raspberry Pi, for example, before data is transmitted over the network. Quarks provides modularity and a micro-kernel runtime which is resource-efficient to allow deployments on these kinds of devices with constraints in hardware resources such as memory, including only the components in the build that are needed for that specific device or application.

Quarks addresses requirements for analytics at the edge in IoT use-cases that are not addressed well by central server-based analytics solutions. Using centralised analytical tools to make interpretations and decisions from IoT data traditionally means that the data must be transmitted over a network – and this can be problematic when using systems such as long-range wireless, satellite or cellular communications where bandwidth is constrained or expensive.

Reducing server-side analytics in favour of edge-device analytics reduces the amount of data that needs to be transmitted. This decision making at the edge-node IoT device also allows for relatively fast “decision making” and control of connected devices, without waiting for communications back from the server.

Quarks uses Apache Common Math to provide simple analytics aimed at device sensors, for example windowing, aggregation and simple filtering. This local processing means that devices can react locally, offload processing from central servers, and reduce bandwidth costs.

Furthermore, Quarks applications use analytics to determine when data needs to be transmitted to a back-end system for further analysis, action or storage. For example, an IoT sensor may determine whether a system is running outside of normal parameters, such as an engine that is running too hot.

If the system is running normally, you probably don’t need to send the data to the back-end system – this means additional load, bandwidth costs, and extra storage that is needed. But if your Quarks-based analytics detect an abnormal condition, you can then decide to log that data, and send the data to the back-end system to determine why this issue is occurring and how to resolve it.

This makes the whole system much more efficient, with reduced bandwidth and reduced storage requirements, while still capturing the important data where it matters. By detecting only the abnormalities and discarding the “normal” data – you shift from sending a continuous flow of data to sending only the essential and meaningful data, locally filtering the interesting from the mundane and reducing these costs.

You can write an edge application on Quarks and connect it to a cloud-computing service such as IBM’s Watson IoT platform. Quarks can also be used for enterprise data collection and analysis, such as log collectors, application data, and data centre analytics, for example.

And Quarks can be integrated with centralised analytics systems such as IBM Streams or Apache Storm to provide edge-to-centre analytics. This means you have the best of both worlds, with the benefits of both edge-device and server-based analytics and tools for decision making.

Quarks supports connectors for MQTT, HTTP, JDBC, Apache Kafka and IBM’s Watson platform, – as well as analytics systems such as IBM Streams and IBM Bluemix streaming analytics or open-source systems such as Apache’s Spark, Storm, Flink and Samza platforms.

And the best thing is that because Quarks is open-source and highly extensible, it’s possible to add support for custom connectors and analytics applications of your choice, if the currently supported systems do not meet your needs.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

In the past few months the number of new announcements of Internet-of-Things platforms and services is outstanding – and the latest to come across our view is Autodesk’s new SeeControl IoT service – a cloud service for enterprise-level Internet-of-Things applications, aiming to help manufacturers and industrial users to connect, analyse and manage their products and the data that these systems generate.

SeeControl virtualises things such as machines, links them with reporting devices, and provides analytics to unlock the data potential trapped inside industrial devices. SeeControl services help manufacturers incorporate sensors into their products, manage them remotely, and collect the big data they provide.

With smart, connected machines enabled by SeeControl, manufacturers can offer higher service levels, reduce asset downtime and lower maintenance and material costs.

SeeControl services provide everything businesses need to achieve these IoT benefits in one place, and to get up and running quickly. SeeControl is an open cloud platform that is interoperable with a huge range of devices, as well as other cloud services, back-end systems and mobile applications – helping to deliver interconnected IoT services with strong user experiences. SeeControl offers a drag-and-drop approach to industrial IoT that enables users to innovate quickly, without advanced coding expertise.

The platform runs in Autodesk’s cloud infrastructure as a white-label subscription service, and the use of cloud computing for the SeeControl platform means that it can interconnect and scale to any desired scale with ease. SeeControl is designed to be an invisible IoT engine that provides your business with a rich toolset as a white-label solution. On top of this, you can add your own corporate branding, identity, look and feel.

The SeeControl platform provides templates for many example solutions, allowing you to quickly get used to the easy-to-use visual programming tools and edit these templates to start building your unique solutions.

The platform provides a large library of device adapters which cover a wide range of protocols and different products, helping to ensure that your solutions are future-proof and can be connected with different hardware devices and different products on the market into the future.

Using analytics and insight provided by SeeControl, you can provide customers with a uniquely improved level of service, reduce costs and run your business more efficiently. Inventory levels can be maintained more efficiently, for example.

Predictive maintenance enables parts to be ordered automatically before they’re needed, and products and machinery can be kept running at peak levels. Potential failure can be identified before it happens and maintenance downtime can be scheduled so that it will be least disruptive.

Performance of systems can be monitored, so you can see how your product performs in the real world and use live data to make product improvements and optimise future development. You can use SeeControl analytics to provide customers with real-time understanding of their products, so you can participate in the full product lifecycle and increase value to the customer – as well as bringing in an additional revenue stream through ongoing product-as-a-service solutions.

End customers may be able to predict when maintenance may be required ahead of time, as well as being able to manage spare parts, consumables, maintenance and warranty activities all in one place, in one seamless experience. If service workflows need to involve third parties, you can easily let them collaborate on their job in their portion of the system with access to this valuable data but with access only to the data that is relevant for service, maintenance or supplier needs, maintaining strong overall security.

Unlike other IoT platforms, which are device-centric and provide raw data collection and simple rule frameworks, SeeControl starts by building virtual software-based models that represent all your physical devices, machines and products, with analytics integrated into these models. SeeControl provides a universal mobile app that allows you to quickly get started with mobile connectivity to the service.

This app is customisable, and you also have the option of using the SeeControl API to build a mobile app from scratch to best meet your needs. SeeControl provides REST and SOAP APIs for data brokerage and transferring device data from legacy systems or complementary systems which will be used alongside SeeControl. For example, these APIs can be used to post device data to a Web server via SeeControl from a SeeControl-enabled system or device.

As well as using the APIs to connect with SeeControl, you can also use the extensive libraries in the SeeControl platform. These libraries offer extensive support of open standards and vendor-specific standards for a wide range of embedded devices, sensors and actuators, communication and networking devices and gateways. For example, existing format and protocol adapters are provided for CoAP, MQTT and Modbus, to name just a few.

If there is no out-of-the-box support for the technology that you want to connect with, you can write your own device adapter so SeeControl can support your device, using the protocol, data format and language of your choice. And when it comes to hardware, software and support for a SeeControl or other Internet-of-Things platform, the LX Group us ready to work wiwth you.

We have end-to-end experience and demonstrated results in the entire process of IoT product development, and we’re ready to help bring your existing or new product ideas to life. Getting started is easy – click here to contact us, telephone 1800 810 124, or just keep in the loop by connecting here.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

The Third Generation Partnership (3GPP) telecommunications standard-building organisation has recently introduced the new LTE-M, or LTE for Machine-Type Communications, standard.

LTE-M is intended to allow devices that operate on LTE (Long-Term Evolution) cellular networks to be less expensive, both in terms of hardware deployment and bandwidth costs, more power efficient – and generally better suited to the requirements of Internet-of-Things and M2M applications.

With IoT and M2M communications becoming more widespread, there has been a growing need for a version of LTE that meets IoT-oriented requirements of low power consumption and low cost at relatively low data rates, and this is exactly what LTE-M aims to deliver – low power consumption (up to five years for a device running on AA batteries), easy deployment, interoperability, low overall cost, and reliable wide-area coverage.

A key advantage that LTE-M has over alternative technologies for low-power wide-area IoT networks, such as SigFox or LoRA – is that it takes advantage of the existing LTE network infrastructure with no need to deploy new hardware.

Since LTE-M is able to share spectrum with standard LTE devices, this makes it a more attractive option for most mobile network operators compared to alternative LPWA technologies. Telcos only need to upgrade the software on their towers to enable support for LTE-M, without any need for hardware upgrades, which helps to keep transition costs low.

And as LTE-M is just a physical-layer change for operators, all upper-layer cellular features such as global roaming, billing, subscription management and support services can transition seamlessly.

LTE-M is also known as “Category 0” LTE, the lowest of the LTE device bandwidth classes, with a peak speed of 1Mbps. Category 0 is specifically aimed at the requirements of typical IoT and telemetry applications which require low cost and low power consumption, but not large amounts of bandwidth.

As well as reductions in power consumption and hardware cost in these more bandwidth-constrained devices, coverage range and reliability is improved, which is another desirable factor in the IoT market where devices may be used in remote areas on the edge of a network cell. All these improvements, in hardware cost, network coverage and power efficiency, are important to ensure that IoT and M2M applications can be cost-effectively deployed on LTE mobile networks.

These changes are becoming more important as telecommunications network operators look to shut down obsolete 2G GSM – and even 3G, in some cases – network infrastructure. In Australia for example, Telstra has announced plans to have its 2G GSM infrastructure shut down by the end of 2016 – and although this is not a concern for typical consumer voice and data services it is potentially a real problem for some embedded IoT and machine-to-machine infrastructure where 2G modems are used on Telstra’s network.

A practical transition for these systems needs to be available soon, and it needs to be cost-effective and as simple as possible.

Although the standards that define Category 0 LTE-M devices are still a year or two away from widespread use, Category 1 LTE devices are deployable now, and these are viable for many M2M applications.

For example, Sequans has introduced a Category 1 LTE chipset solution named Calliope that is available now and is specifically aimed at the needs of low-cost M2M applications. LTE Category 1, at speeds of up to 10 Mbps, has been part of the 3GPP’s LTE specifications since the earliest days, which means that LTE network operators can support Category 1 devices without any need for network upgrades.

Category 1, and later Category 0, devices provide significant cost and power reductions compared to higher-bandwidth Category 4 or higher LTE devices, but they maintain seamless coexistence with regular LTE networks.

Category 1 LTE chipset solutions like Calliope offer engineers a basis for transitioning their cellular IoT/M2M designs which is available today and is sufficiently low-cost to remain competitive with existing 2G and 3G solutions while still providing all the performance, cost and longevity advantages of LTE connectivity.

Allowing devices that don’t require high throughput, like most M2M/IoT devices, to only access the limited class of bandwidth that they need allows cellular networks to be managed more efficiently, which is another advantage of using these low-bandwidth LTE device classes for IoT applications.

LTE-M includes mechanisms that give service providers the option of designating LTE-M IoT traffic as lower-priority than voice or video traffic from higher-revenue subscribers. This capability benefits both high-bandwidth Internet users and low-bandwidth IoT users as well as the telcos themselves.

Network operators reduce costs by using a single network for latency-tolerant IoT traffic and higher-bandwidth real-time services, while also avoiding the need to carve out spectrum for IoT markets that may take some time to grow in revenue. High-bandwidth users get more reliable services and IoT users get lower-cost subscription options that cost-effectively provide the amount of data and bandwidth they need.

Overall the upcoming LTE-M specification offers a win-win for both network operators and end users’ hardware and Internet-of-Things devices. And here at the LX Group we have end-to-end experience and demonstrated results in the entire process of IoT product development, and we’re ready to help bring your existing or new product ideas to life. Getting started is easy – click here to contact us, telephone 1800 810 124, or just keep in the loop by connecting here.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

In order to continue maintaining wireless standards to meet contemporary and future needs – the Wi-Fi Alliance has announced Wi-Fi HaLow, the Alliance’s branding for their work developing and promoting wireless networking solutions based on the IEEE 802.11ah standard.

The IEEE 802.11ah standard is a new extension of the very popular and widespread IEEE 802.11-2007 wireless networking standard, providing a new physical layer and MAC layer specification for Wi-Fi networks that can operate in the sub-gigahertz bands at around 900 MHz.

Because of the different propagation characteristics of radio waves at this frequency, this change significantly extends the range of existing Wi-Fi networks that currently operate in the 2.4 GHz or 5 GHz bands, and allows the radio to propagate through walls and obstructions much more effectively. This allows homes and buildings to be comprehensively covered with reliable Wi-Fi connectivity without using a large number of access points, with a probable need for only one access point per building for seamless, reliable coverage even in large buildings.

Having reliable wireless networking connectivity across a whole home or building with minimal infrastructure is particularly attractive for Internet-of-Things, home automation or building management applications, and these IoT applications are the main application area that 802.11ah networks are aimed at enabling. Wi-Fi HaLow opens up new use-cases for Wi-Fi, such as home automation, smart energy networks, wearables, consumer electronics, low-power sensors, and what the Wi-Fi Alliance refers to as the “Internet of Everything”.

IEEE 802.11ah has rebuilt and optimised the physical layer and the MAC layer from the ground up, although the higher network layers remain more consistent with existing versions of the 802.11 standards.

These changes provide extended range, strong improvements in power efficiency, more scalable operation, and an enhanced link budget compared to 2.4 GHz systems. At the same time, however, 802.11ah aims to leverage the established Wi-Fi and IP networking ecosystem where possible, for easy configuration, easy pairing to access points or mobile devices, and connectivity into existing networks and the Internet.

802.11ah supports 4, 8 or 16 MHz of bandwidth, allowing higher data rates depending on the allocated spectrum that is available in different regions, with the low-bandwidth 1 MHz and 2 MHz modes being mandatory and globally interoperable for all devices where this lower bandwidth is realistic. For example, 26 MHz is available in the 900 MHz band in the United States, making these higher-bandwidth modes accessible.

The standard aims to offer a minimum of 150 kbps of throughput with 1 MHz of bandwidth used, or as much as 40 Mbps with 8 MHz of bandwidth. This is obviously less than what we expect from traditional Wi-Fi networks, but the favourable combination of moderate bandwidth, moderately low power consumption and long-range propagation make 802.11ah an attractive competitor with other technologies such as IEEE 802.15.4/6LoWPAN in building automation and IoT applications.

These lower-bandwidth nodes are well suited to low-cost battery operated sensor devices in IoT applications, where a relatively low data rate is required. No power amplifier is required for “home scale” transmission distances, and the minimum data rate of 150 kbps means that IoT sensors transmitting short, lightweight messages can remain in a sleep state most of the time – and wake up for a short period to transmit a burst of sensor data, lowering average power consumption and offering maximum battery life.

Average power consumption in this type of application is also reduced by using more efficient protocols at the MAC layer, such as smaller frame formats, sensor traffic priority, and beaconless paging mode. The MAC is also optimised to scale to thousands of nodes by using efficient paging and scheduled transmissions.

As with existing 802.11 Wi-Fi devices, the work of the IEEE and the Wi-Fi alliance ensures that 802.11ah devices will be interoperable across all the different hardware vendors, with a strong open standardisation process that brings in participation from many industry representatives and stakeholders.

With its focus on embedded and IoT applications such as home automation, 802.11ah is not intended as a general-purpose high-speed wireless networking solution for the home or office. It is likely to deliver significantly reduced speeds compared to familiar 802.11 networks, with speeds in the low tens of megabits per second. This is perfectly sufficient for the typical kinds of intended applications with an IoT focus, however.

The 802.11ah standard is intended to be an attractive competitor to Bluetooth in IoT and consumer electronics applications, offering longer communications range than either Bluetooth or existing Wi-Fi, but with a significantly reduced power consumption compared to familiar 802.11 Wi-Fi solutions on the market at present.

As this technology becomes more available in the market, it’s likely that it will begin to supplant Bluetooth in certain consumer electronics applications, as well as supplanting other wireless standards such as existing Wi-Fi and 802.15.4 networks in the Internet-of-Things domain where relatively long-range communication with a large number of low-bandwidth devices is required.

Here at the LX Group we have end-to-end experience and demonstrated results in the entire process of IoT product development, and we’re ready to help bring your existing or new product ideas to life. Getting started is easy – click here to contact us, telephone 1800 810 124, or just keep in the loop by connecting here.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

The latest version of the popular ZigBee wireless mesh networking standard, ZigBee 3.0, is an attempt to combine the various different components and device profiles within the ZigBee standard into a single, unified specification.

This new ZigBee 3.0 standard aims to provide seamless interoperability across the greatest possible selection of smart Internet-of-Things devices employing ZigBee wireless connectivity – giving consumers and business users access to ZigBee-enabled products and services that will work together seamlessly to meet their needs.

It delivers all the familiar capabilities you expect from ZigBee, while unifying most of the different ZigBee application profiles which are presently in use, such as ZigBee Home Automation and ZigBee Light Link, into a single platform.

ZigBee 3.0 defines more than 130 different specific devices and a wide range of device types, including home automation, lighting, energy management, smart appliances, security, sensors, and healthcare monitoring devices. All the device types, profiles, commands and functionality that are currently defined in the ZigBee PRO standard (which ZigBee 3.0 is based on) are available in ZigBee 3.0.

The initial release of ZigBee 3.0 unifies together the ZigBee Home Automation, ZigBee Light Link, ZigBee Building Automation, ZigBee Retail Services, ZigBee Health Care and ZigBee Telecommunications Services application profiles into the single ZigBee 3.0 specification.

All the application-level functionality of the ZigBee Smart Energy profile is already included in ZigBee 3.0. However, ZigBee Smart Energy includes advanced security features such as elliptic curve cryptography, specifically implemented for use by electricity utilities to enable high levels of security in smart grid applications.

For this reason, the ZigBee Smart Energy application profile is not unified into ZigBee 3.0 at this time. However, the ZigBee Alliance is working to integrate this level of security as an optional feature of ZigBee 3.0, across all application types, and this will allow merging the Smart Energy profile into the ZigBee 3.0 standard.

ZigBee 3.0 builds on the existing ZigBee standard but unifies the market-specific ZigBee application profiles to allow all devices to be wirelessly connected to the same network, irrespective of their market designation and function. The unification of these profiles means that a wide variety of smart devices that previously have used any one of those profiles can now interoperate seamlessly with any other ZigBee device – with the potential to lead to new, innovative IoT applications and solutions.

Home automation and Internet-of-Things products presently on the market have typically targeted a single application area, such as smart lighting using the ZigBee Light Link profile, for example. But as the number of smart, connected IoT devices grows, a typical home or office may obtain more connected devices, and different types of connected devices. But using current ZigBee application profiles, different types of devices cannot always communicate with each other.

A ZigBee Light Link device cannot directly communicate with a ZigBee Home Automation device, and as the number of devices being deployed grows – this just doesn’t make sense in terms of building useful IoT experiences that make sense for consumers.

In the past, there have been separate components to the ZigBee standard because the ZigBee Alliance has focused on optimising their standards for individual markets based on limitations of hardware, such as processor speed and memory size, and the particular requirements of individual markets. Improvements in hardware, like high-performance, low-cost systems-on-chip, combined with the increasing desire to connect a wider variety of devices across market sectors, led the ZigBee Alliance to create the ZigBee 3.0 specification.

The ZigBee Certified program is another crucial part of the ZigBee Alliance’s standards development process. The program allows manufacturers to deliver a variety of products to all kinds of customers with applications that can benefit from ZigBee connectivity, and customers can have confidence in products that “just work”.

The ZigBee Certified process ensures that products built using ZigBee 3.0 function as expected and products from different manufacturers are all able to interoperate with each other. For example, existing ZigBee Certified products based on the ZigBee Home Automation 1.2 or ZigBee Light Link 1.0 profiles are already certified as being interoperable with ZigBee 3.0.

If you’re currently developing a product based on ZigBee Home Automation or ZigBee Light Link, your product will be forward compatible with ZigBee 3.0, so there’s no need to delay your product development while the ZigBee 3.0 specification matures. Your product can still be ZigBee Certified using the older specifications, and this means you’re fully ZigBee 3.0 ready.

Devices that use ZigBee application profiles other than these may need to have a firmware update for compatibility with ZigBee 3.0. The IEEE 802.15.4 standard that defines the physical layer and MAC layer of the network stack remains unchanged in ZigBee 3.0, since ZigBee only defines the higher layers of the network. This means that the radio hardware in your device does not need to be changed or upgraded to move up to ZigBee 3.0 compatibility.

Vendors that have existing products on the market that employ ZigBee profiles such as ZigBee Home Automation are able to continue to release products using these separate application profiles, but the ZigBee Alliance believes most manufacturers will choose to move towards ZigBee 3.0 and the interoperability benefits that it offers.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.

Atmel has recently launched a new wearable computing development platform aimed at energy-efficient IoT and wearable computing applications, just in time for the influential 2016 Consumer Electronics Show in Las Vegas.

This ultra-low-power platform, based on the BTLC1000 system-on-chip, is a design-ready development board that showcases some of Atmel’s power-efficient, smart and secure devices for embedded wireless connectivity applications, as well as inertial and environmental sensors from Atmel’s technology partners.

The ATBTLC1000 SoC offers a complete hardware and software solution – making it easy to get started with the development of portable, battery-powered devices with Bluetooth Smart (Bluetooth Low Energy 4.1) connectivity – serving application areas such as wireless data logging, wearable computing, and other popular and rapidly growing IoT markets.

Atmel’s new hardware platform is one of the smallest, most power-efficient Bluetooth Smart hardware reference platforms on the market aimed at IoT and wearable applications – and it’s very easy to get started using it for evaluation and hardware or software development, with everything you need to get started provided ready-to-go.

Atmel believes this development platform provides a hardware and software ecosystem that is easy to use out-of-the-box, helping developers accelerate their product development in emerging areas such as wearable computing, personal healthcare and fitness logging devices, Bluetooth Smart IoT applications and other markets.

All of which could benefit from the powerful combination of wireless Bluetooth Smart connectivity, a powerful ARM Cortex-M0+ microcontroller, on-board temperature, humidity and pressure sensors, a six-axis inertial measurement unit, and very efficient use of battery power.

Atmel’s Wearables Demo platform integrates the Atmel Smart SAM L21 ultra-low-power microcontroller, which uses an ARM Cortex-M0+ core, alongside Atmel’s ATBTLC1000 system-on-chip which gives the system wireless connectivity using Bluetooth Smart.

The platform also includes a capacitive touch sensor interface, hardware cryptographic and security capabilities, and a set of sensors from Atmel’s partner Bosch Sensortec. The sensors provided on the board include a BHI160 6-axis inertial measurement unit, measuring acceleration and rotation in three dimensions, and a BME280 environmental sensor which provides temperature, humidity and barometric pressure measurements.

All these hardware features are integrated into a very small reference board with dimensions of only 40 by 30 millimetres, making this reference design particularly attractive for developers working on size-critical applications such as portable and wearable devices.

Of course it’s still a valuable development platform for all kinds of IoT applications requiring Bluetooth Smart connectivity or as an evaluation platform for the ATBTLC1000 or any of the other devices featured on the board, even if the application you’re working on is not size-critical.

Atmel’s new ATBTLC1000 Bluetooth Smart chipset is available packaged in a tiny 2.2 x 2.1mm Wafer-Level Chip Scale Package, making it 25 percent smaller than the closest competing Bluetooth Smart device on the market. This enables designers to create ultra-compact designs for the next generation of Bluetooth-connected wearable devices, Internet-of-Things products and industrial applications.

Furthermore, power management is a highlight of the new platform – the Atmel Smart SAM L21 microcontroller at the heart of Atmel’s Wearable Demo platform is claimed to be the lowest-power ARM Cortex-M0+ microcontroller on the market, and this is combined with the industry-leading energy efficiency of the ATBTLC1000 Bluetooth Smart system-on-chip.

This makes it a perfect foundation for battery-powered IoT and wearable computing applications where strong energy efficiency and battery runtime is important but the performance of a 32-bit ARM microcontroller is also desired.

The SAM L21 has a current consumption as low as 35 microamps per MHz in active mode, and right down to 200 nanoamps in sleep mode. In fact, the power consumption of this microcontroller is so low that it can often be powered from a single lithium coin cell in some applications.

This device delivers an impressive score of 185 in the EEMBC ULPBench suite, which is an industry-standard benchmark of energy efficiency in low-power embedded devices, and this is the best score recorded for any ARM Cortex-M0+ device currently on the market.

This powerful, compact hardware platform is also backed up by a software ecosystem provided by Atmel, making it a complete development platform that allows you to very easily get started experimenting with and developing energy-efficient IoT and wearable computing applications that combine Bluetooth Smart connectivity with a powerful microcontroller, long battery life, and a range of sensors, all in a very small form factor.

To help you get started easily, the software development process is simplified through the use of Atmel Studio 7, Atmel’s flagship IDE for their microcontroller products.

This platform is also compatible with Atmel START, Atmel’s intuitive new web-based development tool for software configuration and code generation, and Atmel also has a real-time operating system available for use with the ARM chipset.

We’re excited about the possibilities with this new chipset from Atmel – and with the Internet of Things and how it can be used to create new and innovative solutions to our customers’ requirements.

Published by LX Pty Ltd for itself and the LX Group of companies, including LX Design House, LX Solutions and LX Consulting, LX Innovations.