DJI will use DataMapper for drone Remote Sensing analytics

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DataMapper is a cloud-based platform for storing and analyzing remote sensing data captured by drones, planes and satellites. The platform has been developed by PrecisionHawk – one of the most influential drone companies out there, which recently raised $18m in series C funding.

Yesterday PrecisionHawk and DJI announced a partnership for agriculture market. It will link DJI’s commercial drone hardware with PrecisionHawk’s DataMapper platform to offer a complete agricultural analytics solution. Michael Perry, DJI’s Director of Strategic Partnerships told us:

“Farmers need real-time information about their crops, their fields and their harvests, and DJI and PrecisionHawk are working together to give them what they need. We are excited to make collecting and analyzing aerial data easier and more cost-effective than ever, because putting this technology within reach of working farmers will help them as well as everyone who relies on the crops they produce.”

DJI, the company that revolutionized consumer drone’s market with its Phantom quadcopter series is now investing a lot of attention in professional solutions. The company’s UAV platforms that include the Matrice M100 and M600 series are designed to carry advanced sensors needed for crop monitoring.  The overall ecosystem will be enhanced with the new DataMapper Inflight app for data collection and management directly in the field.

The app is already available for Android and soon will be realeased for iOS. It allows user to easily create a flight plan for autonomous areal capturing. The images can be viewed and processed via the app. PrecisionHawk offers multiple build-in processing algorithms as well as the algorithm marketplace where you can buy and sell processing scripts.

All the products are available as a bundle deal where farmers will get everything they need to start using UVAs for optimizing inputs, reacting to threats, improving variable rate, increasing efficiency of crop scouting and estimating yiel.

DJI PrecisionHawk Package Geoawesome


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Mapping Poverty Using Machine Learning And Satellite Imagery

The way we map the world is changing fast. One of the most detailed population density maps of the world was created by Facebook, a company that until recently no one would have associated with maps, of any kind (Read: Facebook created the most detailed Population Density Map to bring the rest of the world online). We are beginning to usher in a new era in mapping – an era in which maps generated by machine learning algorithms.

Machine Learning and Satellite Imagery

By 2030, United Nations hopes to eradicate poverty worldwide and in the data-driven world that we live in, its extremely important to measure our progress towards that goal. The traditional way to measure progress would be to undertake ground surveys. A team from Stanford university has another method to map poverty, using deep learning and satellite imagery.

Mapping Poverty Using Machine Learning

Stanford researchers use machine learning to compare the nighttime lights in Africa – indicative of electricity and economic activity – with daytime satellite images of roads, urban areas, bodies of water and farmland. (Image from Stanford.edu)

In the paper titled “Transfer Learning from Deep Features for Remote Sensing and Poverty Mapping“, the interdisciplinary team comprising of researchers from the Computer Science and Earth System Science department have introduced a new transfer learning approach for poverty estimation based on satellite imagery.

Mapping Poverty Using Satellite Imagery

Electricity and nighttime lights are one of the modern indicators of economic activity and the lack of artificial lights during night time is regarded as a sign of relative poverty and a machine learning system that has access to a treasure trove of day time and night time satellite imagery together with “ground truth” (poverty data collected using traditional methods) can come up with some interesting associations which can be then used to map poverty in areas where such ground truth.

“Basically, we provided the machine-learning system with daytime and nighttime satellite imagery and asked it to make predictions on poverty,” said Stefano Ermon, assistant professor of computer science. “The system essentially learned how to solve the problem by comparing those two sets of images.” – Stanford.edu 

The research work has been nominated for NVIDIA’s 2016 Global Impact Award (Read: How GPUs are helping Map Worldwide Poverty). If you are interested in learning more about the work – check out the post on Stanford University’s page.

What Next?

Facebook already proved how useful machine learning can be to extend the capabilities of remote sensing. Training the computer to classify an area based on training samples is a technique that has been applied in image processing since a long time now but the algorithms where always computational expensive and didn’t scale well enough to be applied on a global scale. Machine learning and deep learning are providing a means to scale it to a global level, taking remote sensing to ever greater heights.

Even as they consider what they might be able to do with more abundant satellite imagery, the Stanford researchers are contemplating what they could do with different raw data – say, mobile phone activity. Mobile phone networks have exploded across the developing world, said Burke, and he can envision ways to apply machine-learning systems to identify a wide variety of prosperity indicators.

“We won’t know until we try,” Lobell said. “The beauty of machine learning in general is that it’s very useful at finding that one thing in a million that works. Machines are quite good at that.” – Stanford.edu


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