LX Group ranked 78 in the BRW Fast 100 List for 2014

October 29, 2014

Once again the LX Group has been awarded top honours as one of Australia’s fastest growing businesses in the 2014 BRW Fast 100 list. LX is positioned at number 78 in this year’s esteemed awards thanks to their continuous efforts and success over the last 12 months.

LX Group is a multi-award-winning Australian electronics design house traditionally specialising in wireless and low-power electronics designs. LX Group is at the forefront of IoT (Internet of Things) and M2M (Machine to Machine) technology – the convergence of hardware devices, the cloud and apps.

LX’s motto, “we take your concept and make it a reality”, reflects their passion for innovative electronic product development.

Examples of this include their recent work with Project Caramello – which includes the award-winning Koala tracking system, the development of which resulted in winning a Sydney Engineering Excellence Award this year. Furthermore, their client base comes from a growing range of industrial, government and scientific sources – all of whom can trust the LX Group with their requirements.

The BRW Fast 100 list ranks Australia’s fastest growing, public and private, small and medium business from all of Australia’s major vertical industries that present solid business practices required to deliver exceptional growth. The BRW Fast 100 list is considered to be the premier guide to Australia’s fastest growing small and medium businesses.

For more information on the BRW Fast 100 list for 2014, go to http://www.brw.com.au/lists/fast-100/2014/
– ENDS –

Media contact:
Elwin Cross
t: +61 2 9209 4133
f: +61 2 9310 7232
elwin.c@lx-group.com.au
www.lx-group.com.au


ARM’s new mbed-based IoT Device Platform

October 27, 2014

The ARM group has recently announced the new ARM mbed IoT Device Platform and an accompanying free operating system, aiming to build on top of the existing mbed embedded development ecosystem to simplify and accelerate the development and deployment of your new Internet-of-Things connected products.

For the uninitiated, mbed is “a platform for developing smart devices that are based on 32-bit ARM Cortex-M microcontrollers. It is designed to provide a highly productive solution for rapid prototyping and product development, with a focus on connected Internet of Things devices.

It is a project developed by ARM, its technology partners and a community of core developers, and it is used by tens of thousands of professional developers to create intelligent products that take advantage of the power of modern microcontrollers and connectivity” (from Wikipedia).

The new mbed platform has been built around open standards and aims to bring Internet protocols, security, standards-based manageability and interoperability together into one integrated solution optimised for the development of cost-constrained and energy-constrained connected devices with the power of ARM’s popular 32-bit processor technology.

The ARM mbed IoT Device Platform is supported by the established and growing mbed hardware and software ecosystem that will provide common building blocks for IoT devices and services. This new platform aims to accelerate the growth of the Internet-of-Things market by enabling innovators to focus on value-add features and differentiation in their product, spending less time on the core processor and connectivity requirements.

The platform is built around the free mbed operating system for ARM processors and devices based around them, and the mbed Device Server, which is analogous to a Web server that accepts connections from Web browsers, but instead it handles the connections from embedded Internet-of-Things devices. The new mbed OS aims to consolidate the fundamental building blocks of the IoT into one integrated set of software components.

The mbed IoT operating system is a modern full-stack operating system that is designed specifically for the popular ARM Cortex-M based 32-bit microcontrollers. Optimised for energy efficiency, connectivity, security and reusable software functionality, as well as being available at no cost, the OS aims to become a foundation that enables widespread innovation in the IoT space.

The mbed OS contains security, communication and device management features to enable the development of production-grade, energy-efficient IoT products.

The mbed Device Server, which is available now, aims to be a key enabler for cloud service providers, operators and enterprises to access the growing IoT market with production deployments, bringing end node devices into the world of web services.

The scalable, industrial-strength mbed Device Server supports the protocols, behaviours and security requirements of IoT devices, making them accessible through APIs to enterprise software, web applications and cloud stacks.

mbed Device Server brings web services to the most demanding enterprise applications in the Internet of Things, utilising open-source protocols such as CoAP/HTTP, MQTT, TLS/TCP, and DTLS/UDP for data communication and device management.

Device Server is a software product that provides the required server-side technologies to connect and manage devices in a secure way, and also provides a bridge between protocols such as MQTT or CoAP that are suited for use in IoT devices and the APIs that are used by web developers.

This simplifies the integration of IoT devices that provide “little data” into cloud frameworks that deploy “big data” analytics on the aggregated data, with the scalability to handle the connections and management of millions of devices.

The mbed IoT Device Platform also incorporates the mbed.org Web community, a central website and a community of more than 70,000 developers working with the mbed platform, providing a comprehensive database of hardware development kits, a repository for reusable software components, reference applications, documentation and Web-based development tools.

The mbed developer website hosts all the development tools you need within a Cloud-based Web IDE to give you quick access wherever you are; it is already configured, requires no installation, and will stay up-to-date whenever you decide to use it.

Software development has come a long way in a short time, driven by the innovation around the productive programming frameworks, tools and workflows of the Web era, and mbed is bringing these modern tools and design patterns into the world of embedded development with up-to-date, modern workflows and tools inspired by the Web development community.

Inspired by the highly productive programming frameworks, tools and collaborative workflows of the web, it is time to bring embedded development up-to-date. The mbed team is developing free and reliable command-line build, component management and test tools, and a Web IDE and developer web services that help bootstrap your embedded development with the accessibility and productivity one would expect in other programming or software development domains.

These new tools comprise a platform toolkit that can handle the complexity and collaboration requirements of the IoT, enabling you to build complex applications from well-tested software components and to collaboratively develop and improve those components.

The Web-based mbed IDE includes features such as workspace version control, code formatting and auto-generation of documentation for published libraries. You can publish projects directly from your private workspace to the developer website to share code openly with the community if you choose, or pull existing libraries into your workspace to get a head start on your project.

The mbed platform offers 32-bit power to your embedded hardware along with an easy point-of-entry, allowing you to work with powerful hardware and IoT product design. As another option for your existing or new IoT-enabled project, our experienced award-winning engineering team can harness mbed for your success.

Getting started is easy – join us for an obligation-free and confidential discussion about your ideas and how we can help bring them to life – click here to contact us, or telephone 1800 810 124.

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 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.


Swarm – simple IoT for new or existing products

October 21, 2014

Bug Labs’ cloud-based Swarm platform is an Internet-of-Things development platform that lets you easily add new Internet-connected services to your existing design or product.

Whether it’s a simple sensor device or a complex industrial system, Swarm provides everything you need to get your product up and running quickly with the new value that Internet-of-Things services can add, helping you to innovate in the rapidly growing IoT market.

Swarm abstracts the raw functionalities, such as sensors, actuators or transceivers, that any hardware device is equipped with and exposes these hardware functions as web services, allowing simple drag-and-drop creation of applications that interact with a diverse range of hardware capabilities.

The system is based around “resources”, which are applications or devices that are configured to produce or consume data over Swarm. A resource may be a physical device such as a smartphone, tablet, an embedded hardware platform or a microcontroller equipped with a Wi-Fi or Ethernet chipset for network connectivity, or it could be a mobile or Web application.

Anything that can communicate through HTTP can be configured to join a swarm and begin producing and consuming data, and Swarm makes it easy to acquire data from or to control connected devices over the Internet or local network using JavaScript or plain HTTP requests.

Resources are organised into collections referred to as swarms. Once a swarm of resources has been created, users may configure it to allow their own resources to participate as well as invite another user’s resources to become members. The owner of the swarm can control what level of access (data production, consumption, or both) each resource in the swarm has.

Once multiple resources have been grouped together as members of a swarm, a resource can communicate and share data with other resources in that swarm. You can easily control the level of access that a resource has to the data within a swarm, and grant a resource permission to produce data, consume data generated by other devices in the swarm, or both.

You can invite another user’s resources into your swarms and accept invitations to place your resources in somebody else’s swarms, making it possible to share your devices and your data with others easily and securely to the extent that you choose to.

Swarm’s RESTful configuration API makes it easy to create resources and swarms and to add resources to swarms as data producers, consumers or both. Once your resources are configured, the Participation API makes it easy to get your resources interacting with the swarms they are members of, and begin producing and consuming data.

Swarm Dashboard is a “homepage” for your device, which provides a fast way to get up, and running with Internet-of-Things value added to your connected product. A dashboard provides secure, real-time, visual access to all the important features and data your device offers, creating a high level, easy-to-understand yet powerful way for your users and customers to experience your device online.

You can choose from hundreds of colourful pre-built graphs, charts, gauges, tables and text displays to design and build your dashboard, all from an easy-to-use graphical interface, which does not require advanced programming expertise to set up. All the elements of your Swarm dashboards are optimised for the best viewing experience on different customer’s devices – smartphone, tablet or PC.

A Swarm Dashboard is just the starting point for the construction of additional applications that can enhance your customers’ experience with your product, because every dashboard is powered by Swarm’s APIs that can be used to build extended dashboards and more complex applications, incorporating services such as event notifications and alerts, real-time visualisations, analytics and reporting, historical activity logs, compliance testing and integration into your existing customer relationship management or enterprise resource planning systems.

Developing applications for embedded computing hardware and other types of connected Internet-of-Things devices can be a complex effort which requires specialised tools and skills because the application code needs to run on the device itself, which is usually a constrained operating environment with limited memory and resources.

But what if you could run the application code elsewhere, in the cloud, and access the device over a network connection? Then you’d be able to write mobile and web-based applications with easier-to-use tools and languages such as JavaScript and Python, without worrying about resource constraints on the embedded device so much, and Swarm helps you to do exactly that.

Swarm lets you write applications using standard web development tools which can then run anywhere you like, whether it’s your PC, your browser, or a cloud-based application server. Swarm coordinates the communications between your application and the connected device via any IP network connection – via Wi-Fi, cellular, satellite or Ethernet networking hardware – securely and reliably in real time.

All this is made possible by intelligently converting hardware-specific I/O interfaces into a collection of easily understood and addressed RESTful Web APIs. Bug Labs’ dedicated Swarm developer portal provides more information for developers on Swarm, its architecture and its open-source code and APIs.

As another option for your existing or new IoT-enabled project, our experienced award-winning engineering team can harness Swarm for your success. Getting started is easy – join us for an obligation-free and confidential discussion about your ideas and how we can help bring them to life – click here to contact us, or telephone 1800 810 124.

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 embedded systems and wireless technologies design.

 


The Internet Protocol for Smart Objects Alliance

October 13, 2014

The Internet Protocol for Smart Objects (IPSO) Alliance is an organisation, which has served as a resource centre and industry leader since 2008 – whose goal is to seek the establishment of Internet Protocol as the dominant, open standard adopted by industry as the basis for the connectivity of “smart objects”, machine-to-machine and Internet-of-Things networks and applications.

The IPSO Alliance provides a foundation for industry growth by fostering awareness, providing education, generating research, promoting the industry, and creating a better understanding of IP and other open protocols and standards and the role they can play in the Internet of Things.

Through the work of the IPSO Alliance, many industries have come to realise the benefits associated with using the Internet Protocol within their Internet-of-Things and M2M products and applications. The Alliance is moving forward from explaining “Why use IP in IoT devices” to “How to use IP” down to the individual device level in connected IoT networks.

While the Alliance will continue to educate and inform on the numerous fundamental benefits of IP, it has embarked on defining the set of appropriate protocols, architecture and data definitions for IoT “Smart Objects” so that engineers and product developers working in this field will have access to the necessary tools in order “to build the IoT right” using open standards in a way that the IPSO Alliance considers to be the most valuable for everybody.

Primary goals of the IPSO Alliance are to promote the Internet Protocol as the universal, most secure and most resilient infrastructure on which to base ever more critical and ubiquitous connectivity, and to carry on their core mission of “Internet Protocol enabling the Internet of Things”. It is a goal of the IPSO Alliance to promote the use of IP as the premier solution for access and communication for smart objects as well as to invest in innovation in IP- and open-standards-based Internet-of-Things technology.

The Alliance aims to uphold open standards for IoT connectivity including but not limited to IP, supporting the Internet Engineering Task Force and other technical standards organisations in the development of standards for smart objects and Internet-of-Things connectivity, building on the technical work of these bodies with promotion, outreach and education.

The main objective of the Alliance is not to define new technologies and standards, but to document the use of IP-based technologies defined by the standards-building organisations such as IETF with focus on support by the Alliance of various use cases.

Furthermore, the IPSO aims to promote the use of the Internet Protocol by developing and publishing white papers and case studies and providing updates on open standards-building progress from associations such as the Internet Engineering Task Force, with a particular focus on Internet-of-Things applications and what IPSO refers to as “Smart Objects”, which promote Web-scale interoperability between IP-connected devices and IoT applications.

The Alliance has recently broadened its standards vision to include education on the best practice for the use of IP and other open protocols to create end-to-end solutions for the Internet of Things, promoting the use of open standards, not just through awareness that these open standards exist but also through education of developers on how to actually use them most effectively in IoT products.

With an aim to understand the industries and markets where M2M and IoT devices can have an effective role in growth when connected using the Internet Protocol, and to organise interoperability tests that will allow members and interested parties to show that products and services using IP-based connectivity for “smart objects” can work together and meet industry standards for communication, the alliance is a beneficial group to further the use of IP in various products.

IPSO aims to build stronger relationships around IP and other open standards within the industry and to create a better understanding of IP and its role in connecting Smart Objects, fostering awareness that the Internet Protocol is an existing, proven networking solution based on open standards that is already deployed and demonstrated to be eminently scalable.

The availability of Internet Protocol, including IPv6 and 6LoWPAN, on constrained embedded systems and low-cost microcontrollers with very limited memory and other resources has made possible a new kind of device and a new kind of Internet, with ubiquitous interoperability between “smart objects” and connected Internet-of-Things devices.

The Internet Engineering Task Force specifies a set of standard protocols for Constrained Resource Environment (CoRE) IP-enabled networks, including the Constrained Resource Application Protocol or CoAP, applicable to low-power and low-bandwidth embedded devices.

CoAP is an application protocol for machines and connected devices, as HTTP is for the World Wide Web, but designed specifically for machine interaction and operation over networks of resource-constrained devices. IPSO’s Smart Object Guidelines provide a common design pattern, an object model that can effectively use CoAP to provide high-level interoperability between “smart objects” and connected software applications on other devices and services.

For more information on the IPSO alliance, you can visit their website from the following URL – http://www.ipso-alliance.org/. And if you’re looking for a partner to help bring your new or existing products to the Internet-of-Things, we have the experience, expertise and team to get the job done.

Getting started is easy – join us for an obligation-free and confidential discussion about your ideas and how we can help bring them to life – click here to contact us, or telephone 1800 810 124.

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 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.


Using Scrum methodology for Hardware Development

October 6, 2014

Although the Scrum agile methodology was originally formalised for software development projects, as with other agile frameworks it can be applied well to any complex, innovative project that a team works on.

Scrum is a way for teams to work together to develop a product where product development occurs in small pieces, with each piece building upon previously created pieces. Building products one small piece at a time encourages creativity and enables teams to respond to feedback and change, to build exactly what is needed using a most efficient manner.

Furthermore it’s a simple framework for effective team collaboration on complex projects that provide a small set of rules that create just enough structure for teams to be able to focus their innovation on solving what might otherwise be an insurmountable challenge.

So let’s have a look at how scrum methodology can be applied, and its potential benefits and challenges, when applied to embedded systems and hardware projects. Building complex products for customers is an inherently difficult task, even more so for projects that have a hardware component, and Scrum provides structure to allow teams to deal with that difficulty.

However, the fundamental Scrum process is quite simple and at its core it is governed by a few core roles on the project team. Product owners determine what needs to be built during a “sprint” interval of 1 to 4 weeks and the development team does the technical work to design and build what is needed during this interval, followed by demonstration of what they have built.

Based on this demonstration, the product owner determines what to build next. The Scrum master ensures this process happens as smoothly as possible and continually helps to improve the process.

A key principle of Scrum that differentiates it from traditional project management philosophies is its recognition that during a project the customers can change their minds about what they need or want, and that unpredictable challenges cannot be easily addressed in a traditional predictive or planned manner.

As such, scrum methodology adopts an empirical approach, accepting that the project cannot be perfectly understood or defined in advance and instead the team focuses on maximising its ability to deliver small iterations of progress quickly and to respond to changing or emerging requirements as the project proceeds.

As the team proceeds through the “backlog” of tasks during a scrum project, it is accepted that changes can and will happen – the team may learn about new market opportunities to take advantage of, competitor threats that may arise, or customer feedback may change the way the product is supposed to work.

When it comes to hardware projects, the time constraints involved in fabrication of printed circuit boards, the ordering of components, hardware assembly or other external manufacturing dependencies and the commitment to a particular hardware prototype design once it has been sent for manufacturing can potentially make it much more difficult to respond to new or changing customer specifications or requirements within the fixed timeframe of a given sprint.

If these kinds of factors in ordering or manufacturing hardware devices exceed the time allocated for a sprint, these manufacturing issues can present a unique challenge when trying to apply agile methods to hardware development.

The “sprint” is the basic unit of development effort in a Scrum project, a period of typically 1 to 4 weeks in which development occurs on a set of “backlog” items that the team has committed to, restricted to a specific time duration which is fixed in advance for each sprint.

Over the course of a sprint the project team has a physical, co-located, “stand-up” meeting every day to communicate between the team and assess its work, while the scrum master keeps the team focused on its goal along the way.

For hardware projects, increasingly popular and accessible tools and technologies such as small-scale CNC milling, 3D printing, and laser cutting are becoming more important for rapid prototyping and agile hardware development, allowing components such as custom plastics or simple PCBs to be rapidly prototyped, demonstrated to the product owner and evaluated within a sprint.

A prototype iteration of a hardware system doesn’t have to physically involve hardware. Simulation and visualisation tools, such as SPICE for electronic engineering, 3D rendering of mechanical components and PCB component dimensions, and thermal modelling for predicting heat transport with a device enclosure, for example, can all play an important role in assuring the quality, interoperability, industrial design, electrical and thermal performance and the “look and feel” of all the components that come together into a new product even before a prototype is actually physically constructed.

These tools and techniques can also be valuable to demonstrate hardware design and engineering progress relatively quickly, within the finite timeframe of a sprint, if the manufacturing of physical prototype hardware will take longer.

Once again this shows that agile can be used effectively with embedded (and other) hardware development if all members of the team embrace the methodology. And that includes the engineering team here at the LX Group – who can bring your ideas to life.

Getting started is easy – join us for an obligation-free and confidential discussion about your ideas and how we can help bring them to life – click here to contact us, or telephone 1800 810 124.

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 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.


SmartConnect – Atmel’s new low-power IoT Chipset Solution

September 30, 2014

Atmel has recently expanded its SmartConnect wireless connectivity portfolio with the announcement of a series of new, turnkey 802.11b/g/n Wi-Fi system-on-chips and modules which are aimed at enabling expanded possibilities in Internet-of-Things, home or building automation and smart energy management as well as smart, connected consumer electronics applications.

The Atmel SmartConnect Wi-Fi family is a range of self-contained, low-power and pre-certified system-on-chips and modules which bring 802.11 wireless LAN connectivity – and access to the Internet – to any embedded system.

These integrated modules offer a great solution for designers seeking to integrate Wi-Fi connectivity without any existing engineering experience with 802.11, real-time operating systems, IP stack concepts nor RF electronics.

Aimed at opening the emerging “Internet of Things”, Atmel’s SmartConnect Wi-Fi portfolio is ready to be integrated in a vast array of battery-powered devices and applications requiring the integration of WLAN connectivity without compromising on cost and power consumption.

Although an active 802.11 radio is more power hungry than some other RF connectivity standards such as Bluetooth Low Energy or 802.15.4/6LoWPAN – the familiarity and existing ubiquitous infrastructure built around the 802.11 wireless LAN standard makes it an attractive choice for many applications, avoiding the need for extra hubs, gateways or cables to be installed to get your devices connected to the Internet.

Atmel’s Wi-Fi system-on-chips are optimised for applications requiring energy efficiency, such as battery-powered devices, with a wide 1.8V to 3.6V supply voltage range, a deep-sleep-mode with less than 20 micro amps of current draw and an architecture that allows for instant switching of the radio on or off or into a sleep state without startup delays.

This allows for battery-powered devices such as portable nodes in wireless sensor networks to be connected to the Internet whilst still retaining extremely good energy efficiency, staying in a sleep state most of the time, waking up several times per day for a moment to collect sensor values and send this data to a server on the Internet before going back to sleep.

Atmel’s SMART SAMW23 Wi-Fi modules are based on Atmel’s low-power Wi-Fi System-on-Chip technology, incorporating WiFi along with an ARM Cortex-M0+ microcontroller core – a fully integrated single-source microcontroller-plus-Wi-Fi radio solution compatible with Atmel Studio 6 and capable of supporting network-connected battery-powered network nodes with a battery lifetime up to years, on a single chip.

This turnkey system provides an integrated software solution, which incorporates application and security protocols such as TLS, an integrated TCP/IP stack and other network services along with a standard real-time operating system.

To help you accelerate your development of these kinds of Wi-Fi connected embedded sensor networks and other Internet-of-Things applications, Atmel will be

making the SAMW23 Wi-Fi system-on-chip available on one of Atmel’s standard Atmel Xplained evaluation boards which will be able to plug into any other Atmel Xplained Pro microcontroller evaluation board.

Getting started with coding is helped by the SmartConnect library provided by Atmel for use with their SmartConnect range of Wi-Fi hardware – a turnkey software framework that is available for you to use in Atmel Studio 6. It removes the need to understand the Wi-Fi stack, enabling designers to focus on the functionality and user experience of their product.

The Atmel ATWINC1500/ATWILC1000 SmartConnect system-on-chip is a family of IEEE802.11b/g/n network controller and link controller targeted at Internet-of-Things applications, providing valuable solutions for add-on WiFi connectivity in existing microcontroller solutions and product designs, bringing wireless LAN connectivity to your embedded device through a serial UART or SPI interface.

The WINC1500/WILC1000 chipsets connect to any Atmel AVR or SMART microcontroller with minimal resource requirements, and in their most advanced mode of operation these chips support single-stream 1×1 802.11n connectivity providing up to 72 Mbps PHY throughput.

Both devices feature a fully-integrated RF power amplifier, LNA, RF switch and power management system and provide internal Flash memory as well as multiple peripheral interfaces including UART, SPI and I2C.

For the serious enthusiast or less-technical developers, the Arduino team in collaboration with Atmel have recently announced the launch of the Arduino Wi-Fi Shield 101 – an Arduino shield based around the new Atmel ATWINC1500 802.11 network controller, which enables rapid prototyping of wireless, Internet-connected Internet-of-Things applications on the popular open-source Arduino development platform at a relatively low cost.

This cost-effective and secure new Arduino Wi-Fi shield is an easy-to-use extension that can seamlessly be connected to any Arduino board, enabling high-performance Wi-Fi connectivity, giving the Arduino design and developer community more opportunities to securely connect Internet-of-Things applications ranging from consumer appliances to wearable electronics, robotics, or countless other applications where wireless network connectivity is desirable.

And thanks to the open-source nature of the Arduino team’s projects, some leverage can be gained for your own products if using the same open-source licensing model. However the new Atmel wireless platform holds great promise for developers of IoT-enabled hardware. And that includes the engineering team here at the LX Group – who can bring your ideas to life.

Getting started is easy – join us for an obligation-free and confidential discussion about your ideas and how we can help bring them to life – click here to contact us, or telephone 1800 810 124.

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 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.


LX Design House Wins The SEEA 2014 Software and Embedded Systems Excellence Award

September 30, 2014

The very best of engineering from LX Design House helps save our national icon.

LX Design House wins the Software and Embedded Systems Excellence Award as part of the 2014 Sydney Engineering Excellence Awards for their work in the Project Caramello Koala.

Project Caramello Koala is a response to the increasing risk facing an iconic native animal. Koalas have recently been listed as a vulnerable species, and monitoring programs are an essential part of the effort to protect them.

The main goal of Project Caramello Koala has been to develop a tracking device specific to the needs of koalas.

Although animal telemetry is not new, none of the currently available animal tracking solutions quite fit the bill for kolas. For example, koalas tuck their chins into their chest to rest, making it unfeasible to have bulky electronics under their chin.

The product of Project Caramello Koala, the K-Tracker, is a solution to the problems raised by the needs of the animals and the challenging environments they inhabit. The K-Tracker is proven in the field to have excellent animal welfare outcomes, and provides high accuracy near-to-live tracking and more comprehensive data than is available with existing systems.

As a dynamic, experienced and multiple-award winning design house, the team at LX are well-placed to bring a wide variety of embedded hardware and other systems to market for their growing client base, and this has been proven with their outstanding results in the 2014 SEEA awards.

The annual Sydney Engineering Excellence Awards (SEEA) celebrate the accomplishments of some of the finest engineering companies and individuals in the world. The Awards showcase leaders in the profession along with world class engineering and innovation.

Each Year the Excellence Awards’ judging panel consider the finalists of each category for an Engineering Excellence Award. As winners in their own right, these finalists represent the very best of engineering with the judging panel seeking to identify those unique finalists that demonstrate outstanding excellence, innovation and best practice.

The 2014 Australian Engineering Excellence Awards feature an exciting new array of state of the art technologies and innovations, cementing the position of the profession at the forefront of our society.

For more information on the SEEA Awards go to http://www.engineersaustralia.org.au/engineering-excellence-awards-sydney-division.

– ENDS –

Media contact:

Elwin Cross

t: +61 2 9209 4133

f: +61 2 9310 7232

elwin.c@lx-group.com.au

www.lx-group.com.au


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