Wireless Sensor Networks Applications: if they work in Africa, they will work anywhere
TrackTrack 2 (Auditorium 2)
SessionExtreme Environments
DescriptionA Wireless Sensor Network (WSN) is a self-configuring network of small sensor nodes communicating among themselves using radio signals, and deployed in quantity to sense the physical world. Sensor nodes are essentially small computers with extremely basic functionality. They consist of a processing unit with limited computational power and a limited memory, one or more sensors, a radio communication device and a power sour
Wireless sensor networks in Developing Countries have a great role to play not only to expedite novel solutions that help mitigate development problems, but also to facilitate research activities in crucial scientific areas such as environmental monitoring and energy management. The solutions found when designing sensor networks for Developing Countries can be used in Nordic countries, where the climate is harsh.
Some of the issues addressed include:
? Power consumption is an important issue for the network to be self-sustainable.
Minimizing the cost of deployment is of paramount importance. Since WSN is a nascent technology, many of the existing general purposes solutions in the market are expensive and/or they are not well tailored for use in the developing world.
To be usable in large numbers in developing countries, where climates are extreme and spare parts are rare, sensor nodes must also be rugged and reliable. Enclosures are needed to protect nodes from moisture and heat, but still expose sensors to the outdoor conditions that they are monitoring. As such, the environmental conditions must be taken into account when designing the system.
We will describe some WSN applications we have been involved in, highlighting how the solutions developed can be used in other harsh environments as well. The applications have to do with Solar Energy Monitoring, Irrigation and Air Quality.
During the presentation, we will demo some of the solutions we developed.
Wireless sensor networks in Developing Countries have a great role to play not only to expedite novel solutions that help mitigate development problems, but also to facilitate research activities in crucial scientific areas such as environmental monitoring and energy management. The solutions found when designing sensor networks for Developing Countries can be used in Nordic countries, where the climate is harsh.
Some of the issues addressed include:
? Power consumption is an important issue for the network to be self-sustainable.
Minimizing the cost of deployment is of paramount importance. Since WSN is a nascent technology, many of the existing general purposes solutions in the market are expensive and/or they are not well tailored for use in the developing world.
To be usable in large numbers in developing countries, where climates are extreme and spare parts are rare, sensor nodes must also be rugged and reliable. Enclosures are needed to protect nodes from moisture and heat, but still expose sensors to the outdoor conditions that they are monitoring. As such, the environmental conditions must be taken into account when designing the system.
We will describe some WSN applications we have been involved in, highlighting how the solutions developed can be used in other harsh environments as well. The applications have to do with Solar Energy Monitoring, Irrigation and Air Quality.
During the presentation, we will demo some of the solutions we developed.
All talks
- A Study on the Prospects of the Internet for Research and Education (ASPIRE)
- A journey into Unified Communication
- Autonomous Wireless Sensor Networks in the Arctic
- Baltic Ring Initiative
- Bringing it together: Bandwidth on Demand and Virtual Organisations
- Building services for sensitive research data
- Building video infrastructure for eCampus
- CalDAV calendar controller for live stream recordings
- Cloud Campus Services in PLATON Project
- Compliance and control with SURFaudit
- Connecting Radio Telescopes for Global VLBI
- Crossing the River: Finland-Sweden cross border fibre
- DNSSEC: from root to (brown) leaves: Lessons learned from 4 years of active deployment
- Demystifying Cloud Security: Understanding the Security mechanisms of Cloud Architectures
- ELIXIR: The European infrastructure for biological data and the tools needed for their analysis
- EUDAT - towards a collaborative data infrastructure
- Ecological Internet: Toward Sustainable Internet
- EduPERT and its new frontiers
- Ethernet OAM integration in OpenFlow
- Ethernet Services Assurance and Monitoring
- ExoGENI: A Multi-Domain Infrastructure-as-a-Service Testbed
- Fibres Sharing
- Field-Trial: Latency in Transpacket switches
- FileSender BoF
- Flow analysis at 10+ Gbps
- GEANT Green Best Practices
- Galaxy - a collaborative tool for High Performance Computing
- Helix Nebula, the Science Cloud: A Strategic Plan for a European Scientific Cloud Computing Infrastructure
- Heterogeneous language data in CLARIN
- High Quality Video: The Path to Global Collaboration
- How Box serves EDUs
- How to build High Availabilty systems
- Inter-NREN meeting
- Invitation to NDN2014
- Lightning talks
- Look what they've done to our CAs...
- Measuring DNSSEC use in today's Internet
- NET+: Internet2's Above the Net Service
- NORDUnet - The Global e-Infrastructure landscape towards 2020
- NORDUnet network Status and Outlook
- NOVI: federating Future Internet platforms
- NSI v2.0: What can it do for me?
- Network Configuration Management and Service Activation
- Network Weather Map
- Network as Instrument: the View from Berkeley
- Next-generation research & academic networks in South-East Europe
- OFELIA: Pan-European testbed for OpenFlow experimentation
- One Protocol Good, Two Protocols ?
- OpenID Connect
- Planning a submarine cable in the Arctic - the NYAAL cable
- Presenting and visualizing network monitoring data using the perfSONAR NC framework
- Re-architecting an NREN for Innovation
- Riding the digital Tsunami? Open access to and reuse of digital research data in Sweden
- Security challenges in IPv6 from the campus perspective
- Supporting Cloud and Collaboration Scenarios with OpenConext
- Supporting Virtual Organisations using VOOT
- Taking a researcher’s e-Infrastructure to the next level
- Technology evaluation for time sensitive data transport
- The European eInfrastructures Observatory
- The Square Kilometre Array - The world's largest radio telescope
- The art & science of trust engineering
- The messy future of synchronous communication
- The state of IPv6 adoption
- Topology information management in a multi-domain network – GEANT
- Towards efficient information retrival from large lecture capture video collections
- UNINETT sanntid: A scalable SIP infrastructure for universities and colleges in Norway
- Utilizing NREN infrastructure to create scalable High Availability Cloud Services
- Verification of High Data Rate Bandwidth-on-Demand networks: User Based Test Equipment
- WebRTC: call for collaboration
- Welcome Address
- What does "infrastructure" mean?
- Wireless Connectivity for Education: eduroam and beyond
- Wireless Sensor Networks Applications: if they work in Africa, they will work anywhere
- eduroam just got bigger in Sweden