News

SPH Engineering Releases Updates for UgCS v2.12 and UgCS for DJI v2.8

SPH Engineering released updates for both UgCS and the mobile companion, UgCS for DJI. The update enhances the overall end-user experience as well as features for professional UAV survey mission planning.  

Enhanced features

In order to acquire more precise aerial data, a double grid option is now available for Area scan and Photogrammetry tool. When a new Photogrammetry area is added to the survey mission, the action Camera by time (with auto flag) is added by default. Many mission planning features now offer a more friendly end-user experience. Enhancements include: the option to move and rotate route, manage common actions for selected segments and display calculated path leg length on cursor-hover. Additionally, polygon side length and calculated area size are now displayed. “Data import, flight planning and control are features that characterize UgCS. Adding the desktop geo-referenced image processing software, UgCS Mapper, to our portfolio provides a nearly complete ground control and mapping platform for UAV professionals," said Janis Kuze, Sales Director at SPH Engineering. "For our customers UgCS Mapper provides significant insight to acquired data quality on site. This will save time and ensure better result. It's truly a PRO solution for PRO’s.”  

Added upgrades

Furthermore, SPH Engineering announced the release of the UgCS Mapper (beta). UgCS Mapper is a geo-referenced image processing software for the desktop. It creates preliminary ortho-photo map in-field, requiring no internet connection. While in beta UgCS Mapper is available for all users, after official release it will be a part of the UgCS PRO and UgCS ENTERPRISE packages. Additional Ardupilot features include: the option to connect over UDP, an added command and action SET_SERVO and REPEAT_SERVO. Plus, the ability to set constant heading (disable yaw to next waypoint). Some of the new UgCS for DJI features, include: drones with multiple video feed option to select video source added, zoom control widget improved and a notification is displayed when a waypoint is reached and left.  

Update links

Download the latest version of UgCS v2.12 and UgCS for DJI v2.8 below. Shop UgCS line of software packages at Unmanned Systems Source.

MicroPilot Integrates Autonomous Sense & Avoid System for UAV Operations

MicroPilot announced the successful integration of FLARM’s Sense and Avoid system with its autopilot. This integration grants clients a reliable autonomous collision avoidance option for fully autonomous UAV operations. With any form of autonomous vehicle, a primary concern is safely avoiding collisions with other craft...without the need for human intervention. A sense and avoid system allows a UAV to do exactly that. Thus, it dramatically reduces operational risks and the need for human monitoring.  

What is FLARM?

FLARM is a traffic awareness and collision avoidance technology used by light aircraft and UAVs. When integrated with MicroPilot’s autopilot, the system alerts the autopilot of nearby aircraft, along with its velocity and altitude. The autopilot uses the information to avoid the aircraft. Thus, it autonomously prevents a collision without a single input from the human operator. With increasingly crowded airspace and the popularity of UAVs, a reliable sense and avoid system is quickly becoming a necessity. This is especially true for beyond visual line of sight (BVLOS) and other autonomous operations. This new system should give operators the confidence to use their UAVs to the full extent of their abilities. “FLARM has been in use for over a decade helping manned aircraft avoid midair collisions,” says FLARM. “We are very happy to see that UAVs are the next type of vehicle that benefit from FLARM, and that UAVs are becoming visible to manned aircraft.”  

Sense and Avoid technology

This integration may give UAV manufacturers the confidence to market larger and longer-range UAVs. Consequently, it also gives operators the confidence to conduct long-range BVLOS operation. Combined, this technology furthers the utility and viability of UAVs.  

About MicroPilot

Started in 1994, with 1000 clients in over 85 countries, MicroPilot is the world leader in professional autopilots for UAVs and MAVs. MicroPilot offers a family of lightweight UAV autopilots that can fly fixed-wing, transitional, helicopter, and Multirotor UAVs. MicroPilot also provides complementary products such as the XTENDERmp SDK, and trueHWIL2.   Shop MicroPilot's line of autopilots at Unmanned Systems Source.

Mini Crypto Chip Developed by USAF to Secure Communications, Data

The use of Small Unmanned Aircraft Systems (sUAS) continues to expand into various industries. And, with that expansion comes growing awareness about the need for secure communications. Of course, for the military, security is nothing new. In a world where data is everything, protecting secret data from malicious hackers is vital.  

Mini Crypto chip

Recently, the US Air Force (USAF) announced the development of a chip to secure communications and data between systems. One such example? For example, such a chip could secure communications between an unmanned aerial vehicle and an explosive ordnance disposal robot. Described as a self-contained encryption engine, the new Mini Crypto chip is capable of generating its own session-based ‘key’. About the size of a cracker, the chip is small and lightweight by design. At 400 milliwatts, its power requirement is roughly the same as a hearing aid. As such, it can install on equipment carried by one-person parties operating as scouts and forward air controllers. The chip's use includes joint and coalition environments, providing tailored access to data. Mini-crypto can also segregate data on a need-to-know basis “We think the Mini Crypto chip will really help forward-deployed warfighters secure sensors, or communications devices, in areas where risk of interception is high, and still protect sensitive data without burdening folks on the front lines with extra equipment or steps to safeguard the encryption device,” said Air Force Life Cycle Management Center, Cryptologic and Cyber System Division, Mini Crypto programme manager Heidi Beason.  

How it works

Mini Crypto works by establishing a key between sender and receiver. Once encrypted, the chip requires the exact key to read it. Mini Crypto's unique key management system protects up to secret data and meets NSA encryption standards. By the time a message is readable by an adversary, it is no longer useful information, the USAF stated. “Communications devices all have a processor, where a message is formatted for transmission," said Mini Crypto deputy programme manager Christopher Edsall. "Its key management system protects secret data and meets the National Security Agency standards." “In the case of a computer, it's the central processing unit. Mini Crypto is located after the processing center but before the transmission center, which is usually a radio. Another Mini Crypto chip is installed at the receiver end after the receiving antennae, but before the CPU. The second Mini Crypto chip decrypts the received message as it comes through the radio where the unencrypted message is processed, and then it is displayed or heard.” The chip’s ability to operate by consuming 400 milliwatts of power makes it suitable for installation on equipment carried by one-person parties operating as scouts and forward air controllers.

FAA requests emergency fast-track of electronic drone authorization

It seems the Federal Aviation Administration (FAA) finally reached a breaking point with requests to access restricted airspace. Currently, it can take up to 90-days for an operator to get authorization to navigate controlled airspace. With more and more authorization requests pouring in, the logjam continues to get worse. As such, the speculation is that some operators decide not to wait and fly without authorization. This may explain the increase in the number of non-compliant operations, as reported by the FAA. It is estimated that there are over 250 drone-related safety reports each month.  

Access to restricted airspace

Under 14 CFR 107.41, “no person may operate a small unmanned aircraft in Class B, Class C, or Class D airspace or within the lateral boundaries of the surface area of Class E airspace designated for an airport unless that person has prior authorization from Air Traffic Control (ATC).” Since Part 107 launched, the FAA has received an extremely high volume of airspace authorization requests from UAS operations. From September 2016 to July 2017 the Agency received 20,566 authorization requests. Of these, the Agency processed 14,334. At any given time, there are up to 6,000 authorizations in the processing queue. Additionally, the number of requests continue to increase. The FAA expects the queue will exceed 25,000 pending authorizations within the next 6 months.  

Ongoing efforts by the FAA

The solution? Fast-track the electronic authorization of drone flights. The groundwork for this eventuality has been a work-in-progress for the FAA. The first step came when the FAA implemented Part 107 in August 2016. This year, the FAA – in collaboration with airport tower staff – developed and published a series of grids. These grids depict the maximum safe and permissible altitude for unmanned aircraft operations. The FAA published these maps online. The maps serve as the foundation for the Low Altitude Authorization and Notification Capability (LAANC) system. The goal is for LAANC to provide a quick and efficient response to airspace authorization requests.  

Real-time authorizations with LAANC?

When operational, the FAA believes LAANC will help the agency grant “near-real time" authorizations for the vast majority of operations. The FAA states that remote pilots certified under part 107, who submit requests that comport with the published limitations, can expect almost real-time, electronic approval. The system is also vital to the safety of National Airspace. The FAA expects LAANC to reduce “non-compliant” operations by at least 30 percent. Plus, once operational, it reduces distraction of controllers working in the Tower. The FAA’s recent request seeks to accelerate the implementation of LAANC, which was to take until the end of the year. “Due to the pressing safety consideration of reducing safety reports due to non-compliant UAS operations, the FAA cannot wait the normal 90 days of public comment,” the agency stated in the Federal Register notice Oct. 11. “Therefore, FAA is requesting Office of Management and Budget's (OMB) approval of this collection of information 7 days after publication of this Notice in the Federal Register. Upon OMB approval of its Emergency clearance request, FAA will follow the normal clearance procedures for the information collection associated with LAANC.”  

Septentrio launches the AsteRx-m2a and AsteRx-m2a UAS

 AsteRx-m2a AdvancementsThis week, at Commercial UAV 2017, Septentrio announced the arrival of the AsteRx-m2a and AsteRx-m2a UAS GNSS OEM engines. The two OEM boards bring the latest in precise and reliable multi-frequency, all-in-view RTK positioning and heading. The boards also provide unmatched interference technology -- all for the lowest power consumption of any comparable product on the market today.
 

AsteRx-m2a Advancements

Smaller than a credit card, the AsteRx-m2a and AsteRx-m2a UAS feature Septentrio’s pioneering AIM+ interference mitigation and monitoring system. AIM+ suppresses the widest variety of interferers -- from continuous narrow-band signals to complex wide-band and pulsed jammers. Increasing radio-frequency pollution plus the intrinsic danger of self-interference in compact systems such as UAS, are common problems. As such, interference mitigation is now vital for any UAS system using GNSS positioning. Both boards bring high-precision positioning and attitude to any space-constrained application. Additionally, their ease-of-integration and high-update rate, low-latency output make both receivers ideal core components in any multi-sensor application.
 

Unmanned applications

AsteRx-m2a UAS is aimed specifically at unmanned applications bringing plug-and-play compatibility for autopilot systems such as ArduPilot and Pixhawk. Event markers accurately synchronize camera shutter events with GNSS time. Plus, the board can power directly from the vehicle power bus via its wide-range input. In addition, the AsteRx-m2a UAS works seamlessly with GeoTagZ Software. As such, it provides offline re-processed RTK accuracy without the need for either Ground Control Points or a real-time datalink. “We’ve taken the hugely successful AsteRx-m2 and added a second antenna input for high-precision GNSS heading," said Gustavo Lopez, OEM Product Manager at Septentrio. "No need to maneuver around in a figure of ‘8’ trying to initialize INS heading or find space or additional power for a separate INS module now. All you need is a second antenna and you’re good to go.”
  Shop Septentrio's product line at Unmanned Systems Source.

About Septentrio

Headquartered in Leuven, Belgium, Septentrio designs, manufactures and sells high-precision, multi-frequency, multi-constellation GPS/GNSS equipment for use in demanding applications. Septentrio receivers deliver consistently accurate and precise GNSS positioning scalable to centimeter-level and designed to perform solidly in the most challenging environments. Septentrio receivers are available as OEM boards, housed receivers and smart antennas.

Humanitarian drones and the future of aid delivery

Industry is not the only sector moving towards the rapid adoption of drones for operations. In fact, a growing number of non-profit organizations are beginning to test the feasibility of drones for their work. Recently, the Malawi Government and the United Nations International Children’s Emergency Fund (UNICEF) announced the launch of a unique testing corridor. The corridor's purpose is to test the effectiveness of delivering humanitarian aid via drone. A first of its kind in Africa, the Humanitarian UAV Testing Corridor launched in June. Today, it is fairly common to use drones for search and rescue efforts as well to capture live images of inaccessible disaster zones. But, many believe that's just the beginning. Given the vast area and various issues plaguing the continent, technology can play an important part in Africa's development and growth. The continents launch of humanitarian drones may very well turn out to be the vanguard in helping to tackle some of those problems. “This humanitarian drone testing corridor can significantly improve our efficiency and ability to deliver services to the world's most vulnerable children,” Christopher Fabian, UNICEF Office of Global Innovation Principal Adviser said in reference to the program in Malawi.  

Innovative drone-based healthcare deliveries

The UAV corridor’s launch follows a successful pilot project that took place in March of 2016. The study tested the drone transport of blood samples as a way to speed up HIV diagnosis in infants. The results determined UAVs were indeed a viable addition to existing transport systems used by health providers. Now, UNICEF and the Malawian Government are taking it a step further. The plan is to test the UAV corridor for a year with participation from over a dozen organizations. Universities, companies, and non-governmental organizations all applied to take part in the program. Currently, Malawi has one of the highest rates of HIV infections in the world. In 2014 alone, 10,000 children died from the virus. While large numbers of young people are tested each year, it represents only a fraction of the population. Physical constraints on the country’s health system is a primary reason testing is limited. The hope is that the drone corridor will reduce the cost and wait time of HIV tests.  

Humanitarian drones

The drones follow pre-programmed flight paths to carry dried blood samples between rural clinics and hospital labs. During the pilot program, one trip took under 20 minutes to complete. The drones conducted tests at various times of day as well as in different weather conditions. The operational advantages drones provide in these rural, underdeveloped areas are tremendous. Malawi, with a population exceeding 18 million people, only has eight facilities that conduct HIV testing for mothers and their children. Consequently, many patients live far away from testing centers. From testing to treatment, the entire process is often delayed, sometimes by as much as two months. Long wait times are a major issue. The sooner a child begins treatment with an antiretroviral medicine the greater the chance of survival. The government of Malawi hopes the humanitarian corridor helps decrease HIV related deaths. But that's just the beginning. Ultimately, one of the aims of the trial corridor is to research the viability of adopting the use of drones across the country’s health sector. Beyond the initial cost of purchasing sUAS, their low maintenance costs mean that drones may have an advantage over traditional transportation methods.  

Zipline takes to the skies in Rwanda

Malawi isn't the only country to benefit from drones delivering humanitarian aid. In fact, a company called Zipline regularly conducts humanitarian deliveries in Rwanda. Based outside of San Francisco, Zipline describes itself as "the world's only drone delivery system at a national scale to send urgent medicines like blood to patients, no matter where they live." In the Fall of 2016, Zipline partnered with the Rwandan health ministry to deploy 15 drones to serve 21 clinics from a single base. The company uses its fleet of sUAS to deliver critical supplies such as blood and plasma to rural hospitals. With its forested and, at times, impassable terrain, deliveries by road are painfully slow in Rwanda. Drones have the advantage of simply flying over the rugged and difficult terrain. Deliveries that  took up to eight hours by road, now happen in under a half-hour. Financed by the Rwandan Healthy Ministry, the project is a success.  

Distribution simplified

The process starts when a hospital sends an order to the Zipline distirubtion center. Local crews pack the product into a small container and load it onto the drone. The drone flies to the hospital and deploys the package, which is attached to a parachute, and returns to the distribution center. Within 5 minutes, after a staff member changes batteries and loads  the drone is once again airborne after a staff member changes batteries and loads a new package. The fleet of fixed-wing UAVs can fly missions up to 50 miles away from the distribution center. The fleets conducts nearly 500 missions a day. In January 2018, Zipline is expanding its operations into Tanzania. The scale of the Tanzanian operation is significantly larger. The plan, in partnership with the health ministry of Tanzania, is for 120 drones operating out of 4 bases. These centers will serve more than 10 million people at 1,000 clinics across the country.  

The future of humanitarian aid?

The advancement of drone technology advancing into humanitarian operations is heartening. And the pioneering projects taking place across Africa are but a fraction of what’s possible. As costs go down and expertise continues to grow, drones will simply be another tool to help deliver humanitarian aid.