In some exciting news for Moniteye our affordable GNSS sensor (‘The STICK’) is now ready to be used out in the wild! After an exhaustive bout of testing, trialling and tweaking the device is now ready to be installed within a production environment.
Moniteye is pleased to announce that we have partnered with US communications giant ATT. The partnership also includes IBM, with the 3 companies combining to help deliver the ATT Structure Monitoring Solution. More information can be found in the press relaease issued by ATT here.
This exciting project will begin with a trial run in the US city of Portland, Oregon. ATT had this to say about the trial: "The city will deploy AT&T Structure Monitoring. Working with IBM IoT Cloud, IBM Services and Moniteye, the city will deploy devices on various infrastructure in Portland with LTE-enabled sensors to remotely monitor structural behavior. The sensors, which measure things like temperature, tilt and cracks, also feature alert triggers to capture significant events. "
The partnership has been the result of a number of years of hard work behind the scenes enabling Moniteye to deliver a unique and innovative product that we believe offers huge value to infrastructure owners across the world. For more information please contact Alex Keal (firstname.lastname@example.org).
Moniteye, in conjunction with Nottingham Scientific Ltd (NSL), have developed a low cost GNSS sensor that provides x,y and z movement measurement to ~2mm accuracies. Currently in the trial phase, Moniteye are very excited to bring the product to market and believe that it has huge potential to bring all the benefits of GPS surveying techniques to the mass market.
The device is able to be deployed in a variety of scenarios including:
- Earthworks, such as embankments, cuttings, flood defences, etc
- Construction sites
- The built environment, such as buildings, bridges, pylons, supporting structures and wind turbines
- Temporary structures, such as stands, seating, lighting, flood defences
- The natural environment, such as landslides, earthquakes, tremors, coastal condition/erosion, ice caps
The devices utilises satellite positioning techniques commonly used within mobile phones to deliver precise movement of at-risk assets. The device is battery powered and can be quickly installed with no on-site calibration required. Other benefits include an alarming feature, an ability to interface into existing asset management systems via an API and a fully user-configurable measurement frequency that can be altered over the air (OTA).
If you are interesting hearing more about the device and its possible applications please get in touch via email@example.com or call us to discuss further on 01572 770 780.
On the 5th and 6th of May, the 11 partners of the collaborative European project TowerPower met in Aix-en-Provence (France) to kick it off. The project aims to develop a remote real time monitoring system for the ageing diagnosis of offshore wind turbine structures.
This development meets a real demand from the offshore wind park operators looking for maintenance cost reductions by increasing time between onsite inspections. The project will last 3 years within a budget close to 2 M€.
Coordinated by the cluster Capenergies (FR), the TowerPower project will involve:
• Associations having activities in the wind energy sector, who will carry out the dissemination and exploitation scheme of the innovation: Capenergies (FR), Cylsolar (ES) et Associazione Italiana Prouver non Distruttive – AIPnD (IT),
• Pilot SMEs interested by the technology, who will contribute to orientate the research work: Kingston Computer Consulting - KCC (UK), Moniteye (UK), Teknisk Data AS (NO), WLB (CY) et TecopySA (ES),
• Research centres in charge of the system design, development and validation: CETIM (FR), Innora (GR) et TWI (UK)
The bearing structure of offshore wind turbines includes one or several basement pile(s), a transition piece designed to face wave assaults and the mast. The main ageing phenomena observed are:
• Instances of fatigue cracking in the support towers;
• Flange bolts at the ends of the tower sections becoming loose;
• Higher than expected levels of vibration, which could cause either of the above mechanisms;
• Degradation of the grouted joint between the pile and transition piece in offshore installations.
Relying on a network of sensors of various natures, on amplifying electronics and on advanced signal processing algorithms, the TowerPower solution will enable self-learning of the normal behavior “signature” of the structure and to detect any deviation from the initial record. Meanwhile, the system will contribute to a better understanding of physic-chemical phenomena leading to flaws triggering.
The intellectual property generated through the project, including eventual patent applications, will be jointly owned by the participating associations, which may conclude licenses agreements with the participating SMEs, their member companies and even other companies in the world according to the business opportunities. Thus, Capenergies will benefit from a remarkable development instrument for its action in the field of offshore wind energy, regionally and beyond, in line with its strategic priorities and those of the PACA region in the frame of its “smart specialization”