Production on 81 satellites for the Iridium Next programme has begun at the Orbital Sciences Corporation Satellite Manufacturing Facility in Gilbert, Arizona.

Orbital will manage production of the satellites under a contract between itself and Iridium’s prime contractor on NEXT, French-Italian aerospace company Thales Alenia Space.

This will include integration of a total of 81 satellites for the constellation, including 66 low-Earth orbit operational satellites, six in-orbit spares, and nine ground-backup spacecraft, over the next three years.

Orbital’s responsibilities under the project also include ground support equipment, primary and hosted payload integration, shipment, and launch integration services.

Scheduled to begin launching in 2015, Iridium NEXT will fully replace Iridium’s current satellite constellation of 66 cross-linked low-Earth orbit (LEO) satellites that cover 100 per cent of the globe.

The provision of water to homes and businesses as well as wastewater treatment is essential. In fact, water utility companies need to provide billions of litres of fresh water to residential and commercial customers and to recycle equal amounts every day. As a result, water and wastewater service providers are under more pressure than ever to improve operational efficiencies. There’s one key area in which improvements can be made and that is effective monitoring and control of water production and treatment assets and other remote sites.

Increasingly, such sites are found in remote parts of a country, particularly as demand for water is increasing. Similarly, the infrastructure required to deliver water to users and to take it away for treatment must cross challenging terrain. The equipment needed to manage this infrastructure and the various water plants needs constant supervision and generates significant volumes of data that must be recorded and conveyed to operations centres to ensure the smooth functioning of the cycle and to enable action to be taken in the event of any problems that might emerge.

Effective monitoring and control of such assets requires complete visibility. One type of monitoring system frequently deployed is known as a supervisory control and data acquisition, or SCADA. Often within a SCADA system there’ll be wireless telemetry media that transmit data gathered by equipment sensors via radio, cellular, or satellite networks. For water and wastewater plants in remote locations, the most successful way to convey this critical data to operations centres is via satellite. The VSAT, or very small aperture terminal, is particularly suitable for deployment in remote monitoring applications because it’s optimised for low-bandwidth two-way data transmission – in other words, the kind of data conveyed in SCADA and telemetry applications.

TSAT, is a variant of VSAT that’s been further optimised for mission-critical communications, offering a private satellite communications network in water and other utility industries. For this reason, it’s the ideal choice for SCADA and telemetry applications in water and wastewater plants.

SCADASat by TSAT

By locating a private TSAT3500 HUB at a control centre, complete independence of any public infrastructure is obtained, and secure and reliable communication is assured. Reliability can be enhanced further with implementation of the load-sharing redundant HUB option.

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Ground Control can deliver complete, turnkey solutions for all satellite communications, such as the TSAT3000 / SCADASat, involving SCADA and telemetry systems.

If you'd like a no pressure call to talk through some of your current challenges, our expert team are here. Simply complete the form.

Renewable energy generation sites for hydro, wind and solar farms can often be in remote or hostile locations. There are many challenges in providing data backhaul from such sites, whether they’re in the development or deployment stages. Ground Control has deployed full end-to-end solutions for renewable energy sites in over 100 countries, working with equipment manufacturers and electricity generation companies alike.

As the deployment of renewable energies grows, so does the investment. Billions of dollars are currently being invested in a range of new and innovative technologies designed to reduce our dependence on fossil fuels and carbon-related sources.

For investors it’s a high-risk strategy, as many of these new technologies are yet to be proven. While the potential dividends from a successful trial are massive, the sums involved are huge and the potential losses are significant. So what can investors and manufacturers of renewable energy devices do to lower that risk?

One of the most important stages in a renewable energy deployment is the feasibility stage. Unlike traditional energy sources, renewable sources cannot be relied on to provide a consistent and predictable energy output. This is the same for most renewable sources. Solar energy can be affected by cloud cover and other high-level weather conditions. Tidal energy suffers from similar problems, where output can be irregular and unpredictable. Wind energy is subject to the random fluctuations of cloud and air pressure patterns. All of these things make the location and efficiency of renewable installations quite unpredictable. This is where the resource assessment stage is critical.

Resource assessment is a preliminary stage designed to assess the average potential output of a renewable energy site. Trial equipment is located at the prospective site and regular measurements are taken of that site’s potential energy output. It’s a long and complex process. The measurements are sometimes taken over a period of months and years and there are significant challenges to face in accessing suitable locations. Wind resource assessment, for example, may require a company to monitor numerous hilltops and offshore sites.

Remote telemetry systems are essential for this stage of any renewable energy project. With a remote telemetry system, data can be collected and transported by radio, GSM, or over satellite using the Inmarsat BGAN network. It’s a safer and more cost-effective way of planning the renewable economy and is essential to the successful deployment of renewable energy sources.

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With 20 years of experience, we can help you make the best choices for your remote renewables connectivity infrastructure.

We’re not invested in selling you a specific product or connections, just the best solution for your needs.

Call us on +44 (0) 1452 751940 (Europe, Asia, Africa, Oceania) or 800 773 7168 (North and South America), complete the form, or email hello@groundcontrol.com.

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Short Burst Data Transceivers

Short Burst Data (SBD) satellite transceivers, as defined by Iridium, are perfect for integration into complete wireless solutions and can be used for a wide range of applications in numerous markets. Designed to be scalable and to work anywhere in the world, SBD transceivers are generally small, light, and don’t cost the earth. They provide critical global data communications necessary for global solutions.

SBD modems are used for sending and receiving short data bursts, generally less than 2Kb at a time, and are most often used in applications that require low data rate or ‘heartbeat’ communications. They can connect to a global mobile satellite communications network and therefore work almost anywhere on the planet, with no expensive roaming charges that you may expect from a cellular network.

These factors make SBD transceivers ideal for machine-to-machine (M2M) solutions, such as offshore and onshore asset tracking, monitoring and control, automatic vehicle location, telematics, alarms, and more.

However, companies that operate such monitoring, tracking, and control systems may not be getting enough from their current solution. They may be limiting the role of their M2M solution by, for example, not upgrading the transceivers, or they may not have invested in M2M at all. It’s critical that organizations have real-time data and control over essential infrastructure and remote assets, today more than ever. A secure and robust satellite solution will help organisations achieve this goal while reducing costs attributed to creating new communications infrastructure.

Low data-rate satellite transceivers such as the Iridium 9602 SBD Transceiver are essential to monitoring, controlling, and tracking M2M solutions. The Iridium 9602 can be easily integrated into M2M communications solutions and can take advantage of the Iridium SBD service. From pole to pole, a device working with the Iridium SBD will always be connected.

The combination of Ground Control’s expertise in tailoring solutions for customers’ specific challenges and our broad range of products creates a wealth of possibilities to extend and enhance M2M deployments. Why not talk to us to see how we can help you make the most from your satellite M2M investments?

Can We Help You?

With 20 years of experience, we can help you make the best choices for your remote connectivity, whether you need one or several thousand devices!

We’re not invested in selling you a specific product or connections, just the best solution for your needs.

Call us on +44 (0) 1452 751940 (Europe, Asia, Africa, Oceania) or 800 773 7168 (North and South America), complete the form, or email hello@groundcontrol.com.

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M2M – or machine-to-machine – solutions are deployed to solve a wide range of challenges, from farmers who want to track and monitor their livestock to scientists studying animals in the wild. In each case, a unique solution is required.

A recent example concerns a livestock feeder manufacturer that wanted to offer nutritional analysis as well as machinery to its customers. Instead of gathering data by hand, which required a great deal of investment in time and effort, the manufacturer opted for an M2M solution. By sharing data from a monitoring device to analysis station over a cellular network, it more efficiently regulated feed distribution and, in turn, improved the quality of milk and meat.

Conversely, wild animals are often found outside of built-up areas and farms – and where there are no towns and cities, there’s a lack of terrestrial communications infrastructure. Tracking the whereabouts of animals – whether on a farm or in the wild – outside of terrestrial cellular networks is a challenge. What’s needed is a robust satellite solution.

Satellite networks provide the global coverage that makes animal tracking possible. With a satellite modem attached to a particular animal – usually via a collar – scientists, researchers, and farmers can pinpoint its exact location with remarkable accuracy. Acting as a virtual shepherd, the satellite solution can be preprogramed to send out a series of messages per day that are then used to plot the animal’s movements. One such application is geo-fencing, where a virtual boundary is defined on an area of land. When crossed by an animal, an alert is triggered.

We think satellite and cellular M2M provides an exciting opportunity for those involved in animal and other asset tracking to address evolving communications needs. We can help you design, implement, and succeed with launching a satellite tracking solution for livestock and wildlife. Why not get in touch to find out more?

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With over 20 years of satellite experience, the Ground Control team is well placed to help keep you connected when it matters the most.

Whatever your communication or connectivity needs, we can help. Talk to one of our team to discover our products and services and how they can benefit, improve and streamline your applications.

Monitoring and control systems in remote, unmanned locations require a reliable and cost-effective communications service to collect and transmit data to operations centres for further processing. This is difficult to achieve with a traditional cellular solution as data rates are significantly higher and it can be impossible to achieve a network connection in remote locations.

A satellite solution will provide reliable connectivity over a satellite network. Connectivity will be global, more affordable than a cellular solution, and will require less from modules and terminals in terms of power consumption.

For example, the BGAN M2M (machine-to-machine) satellite service is a reliable, global, two-way IP data service designed specifically for long-term M2M management of assets located in remote and difficult-to-connect locations. This 3G satellite service will accommodate data volume requirements ranging from megabytes to gigabytes and can be used for applications such as:

  • IP SCADA for data backhaul
  • Asset tracking
  • Fixed and mobile remote surveillance, telemetry, and tracking
  • Smart grid and metering
  • SCADA – telemetry
  • Weather and environmental monitoring and control

 
Opting for a satellite service and using a BGAN M2M terminal will let you connect monitoring and control systems in numerous application areas, giving you full, real-time visibility of your assets.

In the coming weeks, we’ll be discussing how our global satellite solutions can provide the foundation of successful monitoring and control operations that current and future M2M applications will need.

Why not get in touch to find out more about what we do to help customers in a wide range of markets solve their communications challenges?

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We've implemented satellite IoT infrastructure for decades, and there's very rarely been an obstruction issue we couldn't overcome with a bit of knowledge and ingenuity.

We'd be happy to talk to you about your project and offer impartial advice on the best antenna and satellite service for your particular requirements. Call or email us, or complete the form.

It’s hard to explain why, but high-altitude ballooning is fascinating – and a little addictive. We’ve been following the antics of UK-based Andrew Ashe, who along with Mikal Hart (author of the fantastic IridiumSBD library for Arduino) has successfully tracked their balloon and been able to recover its payload thanks to RockBLOCK.

Their setup is based around an Arduino Teensy, with a RockBLOCK and GPS module attached, powered by 3 AAA lithium batteries.

As this was a test flight, the onboard camera was pretty low-spec, but nonetheless took some pretty impressive photos. The RockBLOCK provided tracking information back to base, so they could follow the flight and recover it afterwards.

Key Details

  • RockBLOCK Naked Unit
  • Arduino Teensy
  • GPS module
  • AAA battery holder
  • Three Energizer Lithium AAAs
  • Some Cameras
  • Their HAB

In Depth

Here you can watch an awesome little video showing the launch, and an animation of the track and recovery: