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What is Pilot, Aircrew & ASO Error

The term "Pilot Error" is a well-known term in the aviation community. However, what is "Airborne Sensor Operator" and "Aircrew Error"?

ASOG Focus Area | Aviation Safety

Source | ASOG Safety Center

Pilot errors, Airborne Sensor Operator (ASO) errors, and Aircrew errors all refer to mistakes made within the context of aviation but involve different roles and responsibilities.

Pilot Error

Definition - Pilot error refers specifically to mistakes made by the pilot(s) operating an aircraft. These errors can involve misjudgment, improper aircraft handling, incorrect decision-making, or failure to adhere to standard operating procedures.

Responsibility - Pilots are directly responsible for flying the aircraft, navigating, taking off, and landing, and ensuring the overall safety and control of the flight. Errors within this category pertain to the pilots' actions or decisions during their duties.

Airborne Sensor Operator Error

Definition - An airborne sensor operator error refers specifically to mistakes made by individuals operating specialized sensors and equipment on board an aircraft. These errors involve mishandling or misinterpreting data collected by sensors or improperly operating the equipment.

Responsibility - Sensor operators manage and operate sensors, cameras, radar, or other equipment used for specific tasks like surveillance, reconnaissance, or data collection. Errors might involve misinterpreting data, incorrectly adjusting equipment settings, or overlooking crucial information during operational tasks.

Aircrew Error

Definition - Aircrew error is a broader term encompassing mistakes made by any member of the crew on board an aircraft. This term includes pilots, Co-Pilots, Airborne Sensor Operators, Flight paramedics, and any other personnel serving specific roles during a flight.

Responsibility - Aircrew error extends beyond pilot errors, encompassing a more comprehensive array of potential mistakes. It might involve communication breakdowns, coordination issues between crew members, procedural errors in tasks beyond piloting, and other collaborative tasks necessary for safe flight operations.

Conclusion

To bring it all together, pilot error is related to errors made by those specifically flying the aircraft, aircrew error encompasses mistakes made by any crew member, and airborne sensor operator error involves mistakes made by individuals operating specialized sensors and equipment aboard the aircraft for data collection or monitoring purposes. As you can see, each category denotes different roles and responsibilities within the aviation environment.

Either way, errors made from any specific aircrew position in the aircraft can lead to a possible "Chain of Events" that can result in mission failure or, worse, an aviation accident. Understanding your role & responsibilities is critical, and understanding (and supporting) your fellow aircrew member's roles & responsibilities is part of any aircrew member's professional duty & development.

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Wing Tips – My Hypoxic Event

As an aircrew association, part of our mission is to provide a platform for our members to share their experiences to help others improve in their professional aviation and aerial remote sensing endeavors. With that, one of our newer members just shared this article with the ASOG Desk Editor with the intent to help others – "My Hypoxic Event" by Darren Daigle

 

ASOG Article of the Month | January 2024

ASOG Author | Darren Daigle

Wing Tips

My Hypxoic Event & What I Learned from this Flying Incident

I have had a 25-year career in the Canadian Air Force CAF with about 5000 hours of flying as a Sensor Operator. I have also continued to fly as a drone pilot and now as a sensor operator using the L3 MX15HDi multispectral camera.

In my current job, I fly with a crew in a light twin. We do fire Mapping, and sometimes we fly high enough to require supplemental oxygen.

Our portable oxygen system was my first exposure to the "cannula" system, electronic regulator, and oxygen bottle. The cannula, for those unfamiliar with it, is similar to the tube and hoses you see with some hospital patients. I had never needed it in the CAF since the Aurora (Canadian P-3) is pressurized. The instructions for using the regulator and oxygen bottle were pretty straightforward. The "cannula" is a tube that wraps around the ears and is held under the nose. The regulator senses a breath in and gives a pulse of oxygen through the cannula.

The only description of using the cannula is a picture on the envelope.

I have had hypobaric training with the military, which proved invaluable in this situation. We climbed above 14,000 Feet AMSL, and the oxygen pulses seemed normal. I began feeling light-headed and immediately recognized a possible lack of oxygen. I notified the pilot. We walked through steps to ensure proper flow. I checked the oxygen supply bottle for adequate quantity; it was in the green. I then checked the supply hose to the regulator for kinks or blockages; there were none. I then checked the hose and cannula for kinks or blockages; it was fine.

I decided to wait and see what the problem was for the time being since the symptoms were so mild. I then decided to use my smartwatch to check my O2 level. It showed 76%. I didn't think it was accurate, but I thought it was too much evidence to demonstrate oxygen deprivation. I then pulled the cannula closer to my nose. I noticed that the flow occurred with every breath rather than every second or third breath. It became evident to me that I had the cannula to loose. My symptoms cleared up, and I felt much better. The cannula had to be tight enough to be uncomfortable.

I realized there is no documentation to help identify a lack of proper operation. I suggested to our company that a procedure be implemented to verify that the cannula provided a "puff" every breath above 14,000 feet. I feel this should have been part of the cannula's instructions.

I caution SOs to be very careful when using new equipment that doesn't have excellent documentation. If you think there's a problem, there probably is. Work on the problem until it is resolved. My pilot suggested we could declare an emergency and descend. It was my training and experience that made me hold off a little. Ultimately, the mission was completed, and a lesson was learned.

I hope my experience can prevent any other SO from suffering from a hypoxic event.

 

About the Author

12345732265?profile=RESIZE_180x180Darren Daigle | Darran has over 25+ years of experience in aviation and aerial remote-sensing operations. His skills and expertise span 22 years in the Canadian Forces, five years as an IAI Heron UAV pilot/Instructor, three years as a DA-42 Mission Specialist operating MX-15 HDI in support of ALE and forest fire mapping operations.

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ASOG Focus Area | Industry Support

Source | Eric GARNAUD, Airbus Flight Academy Europe

If you’re looking for a cost-effective, dual-use, multi-mission, adaptive Intelligence, Surveillance, and Reconnaissance (ISR) aircraft, Eric Garnaud at Airbus Flight Academy Europe has one for sale.

Eric says they have a Cirrus SR 22 Special Mission ready for a new Special Mission Operator. If you’re interested, Eric relayed the following information regarding its Special Mission aircraft configuration and how to contact him.

Specifications

Airbus Flight Academy Europe SR 22 Special Mission aircraft consists of various sensors (Electro-Optical Turret, AIS…) that collect data, SAMSARA computer (MPU) for data fusion and display of tactical situations to an operator console in the cabin, and communication equipment (Omni Line-of-Sight datalink, dual SATCOM/GPS, VHF/FM AIS).

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Sensor & Mount

The Electro-Optical turret is fixed to the aircraft by a metallic structure bolted to 4 hardpoints in the baggage compartment. The metallic structure comprises two longitudinal C-beams and a transversal metallic square tube.

A machined arm is pinned to the metal tube and goes through the fuselage via a cutout in the baggage door. The machined arm features provisions to bolt the turret and piano hinges to accommodate the fairing. The support structure and the fairing are designed to accommodate EOS turrets from Ø 7 in. to Ø 10,2 in. and a max weight of 37,5 lbs.

The Electro-Optical turret is a TASE 400 HD from Cloud Cap Tech ( currently removed). This assembly comprises the sensor equipped with a vibration collar and a dovetail. The upper (female) dovetail is bolted to the machined metal arm. The lower dovetail bolted to the vibration collar, is sled into the female dovetail and then secured by locking teeth and a safety pin.

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Operator Station

The Mission Console (see Figure 2.1 above) is made from a standard SR22 seat structure, which has been modified with machined parts to install:

  • Two 15” touchscreens;
  • Keyboard and joystick - Mounted on a flexible gooseneck.

Equipment Configuration

The supporting mission equipment and system as the MPU 200 AISV, SATCOM (SDU 7310, HLD 7260), and DATALINK (FEND NG, MODEM) are installed on an aluminum Support Plate mounted on the Structure Assy for Turret inside the baggage compartment (see Figure 2.1 above).

Electrical Power

The power distribution is given through the AFT CB PANEL mounted on the Structure Assy for Turret. Two cut-off panels are installed on the Support Plate to connect all the harnesses between the equipment and the aircraft.

Antennas

As shown below, three antennas are installed (Omni Line-of-Sight, dual GPS/SATCOM, VHF/FM).

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Duel Use

It’s possible to return to the pre-mod configuration by

  • removing the turret with the machined arm and closing the baggage door with a door closeout;
  • Removing the mission plate and installing a cargo floor;
  • Removing the mission console and installing a crew seat.

Additional configuration options include:

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For More Information

If you’re interested in adding a dual-use and cost-effective airborne sensor platform to your operations, contact Eric directly via the following channels:

Eric GARNAUD

Responsable Navigabilité  AFAE

Airworthiness Manager AFAE

Phone: +33(0)5.17.00.82.72

          : +33(0)6.71.83.57.91

eric.garnaud@afa-eu.com

Airbus Flight Academy  Europe

39 rue des figuiers

16430 Champniers

FRANCE

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Wishing You a Joyful Holiday Season!

We wish you a joyful Holiday Season and a prosperous New Year.

 

Thank you for being part of our professional community. We look forward to continuing to help you reach your fullest professional aircrew potential in 2024 and beyond.

As you enter the new year, please continue to enjoy our community designed to help you plan for success in your aviation career journey.

 

Your Friends at Airborne Sensor Operators Group

Patrick Ryan

ASOG President

Benjamin Kabelik

ASOG Secretary General

Tanja Wimmer-Ryan

ASOG Treasurer

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Let the Networking Begin

You're Invited to Join Us for "Low Stress" Professional Fellowship and Networking

If you're attending this year's EUROPEAN ROTORS VTOL Show, come join us at the "ASOG Base Camp" (Hall 9, AV Buyer & GA Buyer Booth 124)

- Or -

Join us for our popular "ASOG Meet-Up" on the evening of the 27th. Enjoy Happy Hour Drinks hosted by OFIL Airborne.com and have fun networking with fellow professionals.

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For more information on how to participate, send your questions to - info@aso-group.org

 

ASOG Event Sponsors

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The integration of OPENSIGHT- Software Development Kit (sdk) with DJI drones ushers in a new era for unmanned aerial vehicles (UAVs), elevating them into STANAG-Compliant sensors with state-of-the-art capabilities. This innovative integration enhances situational awareness and optimizes SAR results by seamlessly combining data from Lifeseeker, the airborne phone location system by CENTUM and FlySight’s OPENSIGHT technologies. Moving maps and augmented reality functionalities within a tablet ground control station – OPENSIGHT-mission console (mc). 

All information is transmitted in the OPENSIGHT-mc augmented reality environment and displayed directly on the operator's tablet screen, providing a user-friendly interface with the overlaying multiple synthetic information layers directly onto the live video feed.  

Lifeseeker compatibility significantly enhances geolocation performance during SAR operations, even in challenging low or no visibility conditions. The information collected by Lifeseeker is relayed to the OPENSIGHT engine in real-time, creating an optimal situational awareness for the operator. This enhancement expedites and maximizes the efficiency of recovery operations. 

This partnership with FlySight is a testament to our commitment to saving lives and making a difference in critical situations. By integrating our Lifeseeker technology with the OPENSIGHT Software Development Kit, we’re not only enhancing the capabilities of DJI drones, but also expanding our reach to helicopters and fixed-wing aircraft.  We are pushing the boundaries of technology to maximize the efficiency and effectiveness of search and rescue operations.

Héctor Estévez, CEO of CENTUM research & technology

 

SOLUTIONS

OPENSIGHT-mc: OPENSIGHT Mission Console is specifically designed to support payload operators in airborne scenarios, with the aim to conduct the mission more smoothly and efficiently. An Augmented Reality engine, capable of handling multiple high resolution video flows, improves the geospatial situational awareness of the operator by the superposition of multiple synthetic information layers Gone are the days of switching to a separate moving map interface. The OPENSIGHT Mission Console presents all mission-critical information directly on the video stream, significantly enhancing overall mission effectiveness. 

Key features of the OPENSIGHT-mc include: 

• Advanced video processing algorithms for image enhancement (equalization, expansion, saturation, dehazing, fog suppression, super resolution)  

• Augmented Reality engine for real-time vector overlay super-imposition (works with custom user data)  

• 3D Moving map with multiple layers support and real-time video-over-map projection  

• Geodatabase functionality for direct and inverse geocoding  

• Intuitive full touchscreen HMI for quick and effective interaction with the operator  

• Automatic target detection and classification (Artificial Intelligence networks specialized for maritime and airborne threats) 

www.opensight.it   

 

Lifeseeker: Airborne phone location system for SAR, capable of accurately locating missing persons through their mobile phones – even in areas with no network coverage and under adverse weather conditions. It can be used on both manned (planes and helicopters) and unmanned aerial platforms (UAVs/drones). 

This device turns phones into emergency beacons that quickly guide Search and Rescue teams to the exact location of the missing person. Lifeseeker maximizes missions in which every second counts by efficiently locating the person in need. 

Lifeseeker | The Airborne Phone Location System for SAR | CENTUM R&T (centum-rt.com) 

 

We are excited to join forces with CENTUM to bring this cutting-edge technology to search and rescue missions. Our integrated solution empowers operators with unparalleled capabilities, enabling them to respond effectively and efficiently to emergencies and critical situations. This collaboration between OPENSIGHT and LIFESEEKER is poised to set a new standard in the world of search and rescue operations, harnessing the power of DJI drones to make a real difference when it matters most.

Mattia Carpin, Head of Engineering of FlySight

 

SEE WITH YOUR OWN EYES:

🎬OPENSIGHT and LIFESEEKER combine to enhance efficiency in search and rescue missions on Vimeo

 

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ASOG Focus Area | Education & Training

Source | ASOG Education Center

If you're a newly assigned ASO supervisor or you've been given the opportunity to train new Airborne Sensor Operators from scratch, but you're not sure how to get started or organized, here is a good starting point for you to properly train the next generation of operators.

First, an ASO training plan should provide comprehensive instruction to individuals operating sensors aboard aircraft, often for surveillance, data collection, monitoring, or mapping tasks. Additionally, it should continuously reinforce aviation safety principles and best operating practices.

Secondly, an ASO training plan should not focus on a few specific job tasks or just teaching a checklist without explanation; instead, it should focus on producing a well-rounded ASO aircrew member. So, if you want to train "top-notch" operators, here's a recommended outline for a comprehensive Airborne Sensor Operator training plan:

  1. Introduction to Airborne Sensors - Understand…
  • The different types of sensors used in aviation (LiDAR, cameras, infrared, etc.).
  • The role and importance of ASOs in various industries (e.g., aerial surveying, law enforcement, environmental monitoring).
  1. Sensor Technology and Systems - Understand or Know…
  • Specific sensor technologies, including how they work, their data collection methods, and data output formats.
  • Sensor components, calibration methods, and maintenance requirements.
  1. Aviation Fundamentals - Understand…
  • Basic aviation concepts, including flight dynamics, aerodynamics, and aircraft systems.
  • Aviation terminology and communication procedures.
  1. Aeronautical Knowledge – Understand…
  • Aviation regulations and safety protocols relevant to sensor operation.
  • Airspace classifications, NOTAMs, and aviation navigation.
  1. Pre-Flight Preparation – Understand…
  • Pre-flight planning, including mission objectives, sensor configuration, and safety considerations.
  • Weather forecasts and potential impacts on sensor operations.
  1. On-Board Equipment Setup - Understand…
  • Hands-on instruction on setting up sensors, configuring data collection parameters, and ensuring proper alignment.
  • Power requirements and interfacing with aircraft systems.
  1. In-Flight Operation – Understand…
  • Operating sensors during flight, including managing data acquisition, adjusting settings, and ensuring data quality.
  • Work effectively with pilots and other crew members.
  1. Sensor Data Management and Processing – Understand…
  • Data management techniques for sensor-generated data.
  • Basic data processing concepts, including data formatting, georeferencing, and quality control.
  1. Flight Safety and Emergency Procedures – Understand…
  • Flight safety protocols during sensor operations.
  • Emergencies and equipment malfunctions and how to prepare for and respond.
  • First Aid protocols.
  • Aircrew Survival practices.
  1. Navigation and Geospatial Concepts – Understand…
  • GPS systems, navigation principles, and georeferencing techniques.
  • Geographic Information Systems (GIS) and the integration of sensor data.
  1. Data Interpretation and Analysis (Domain-Specific) – Understand…
  • Domain-specific instruction on interpreting and analyzing sensor data for specific applications (e.g., environmental monitoring, agriculture, mapping).
  1. Legal and Ethical Considerations – Understand…
  • Legal requirements, privacy concerns, and ethical considerations related to sensor operation, data collection, and sharing.
  1. Communication Skills – Understand…
  • Communication with pilots, mission coordinators, and other team members during flight operations.
  • To provide clear and accurate reports on sensor data.
  1. Practical Flight Training – Understand and participate in…
  • Hands-on flight sessions with instructors, during which trainees operate sensors in real-world scenarios.
  • Practice in different flight conditions and mission types.
  1. Post-Training Assessment – Understand, Evaluate and Identify…
  • Trainees' ability to operate sensors safely and effectively.
  • Areas for improvement and ongoing training needs.
  1. Certification and Proficiency Test (if applicable) – Provide…
  • A proficiency test to assess trainees' skills and knowledge.
  • Certificates upon successful completion of training.

Remember that this training plan can be customized based on the specific sensors, aircraft, industries, and regulations applicable to the training program. Real-world scenarios, practical exercises, and exposure to actual equipment are crucial for ensuring that Airborne Sensor Operators are well-prepared for their responsibilities.

Read more…

FlySight is all set to unveil the advanced capabilities of OPENSIGHT at the EUROPEAN ROTORS. We'll be offering live demonstrations, showcasing the diverse integrations of 𝐎𝐏𝐄𝐍𝐒𝐈𝐆𝐇𝐓, within the aviation market.
𝐎𝐏𝐄𝐍𝐒𝐈𝐆𝐇𝐓 versatility is unparalleled and we're thrilled to share a series of real success stories, emphasizing its significant impact in the industry.

"𝑇ℎ𝑒 𝑖𝑛𝑡𝑒𝑔𝑟𝑎𝑡𝑖𝑜𝑛 𝑜𝑓 𝑂𝑃𝐸𝑁𝑆𝐼𝐺𝐻𝑇 𝑒𝑛𝑎𝑏𝑙𝑒𝑠 𝑓𝑙𝑒𝑥𝑖𝑏𝑙𝑒 𝑐𝑢𝑠𝑡𝑜𝑚𝑖𝑧𝑒𝑑 𝑠𝑜𝑙𝑢𝑡𝑖𝑜𝑛𝑠 𝑠𝑐𝑎𝑙𝑎𝑏𝑙𝑒 𝑎𝑐𝑟𝑜𝑠𝑠 𝑎𝑙𝑙 𝐿𝑒𝑜𝑛𝑎𝑟𝑑𝑜 𝑝𝑙𝑎𝑡𝑓𝑜𝑟𝑚𝑠 𝑡𝑜 𝑚𝑒𝑒𝑡 𝑎 𝑣𝑎𝑟𝑖𝑒𝑡𝑦 𝑜𝑓 𝑐𝑖𝑣𝑖𝑙 𝑎𝑛𝑑 𝑚𝑖𝑙𝑖𝑡𝑎𝑟𝑦 𝑚𝑖𝑠𝑠𝑖𝑜𝑛𝑠 𝑎𝑛𝑑 𝑝𝑟𝑜𝑣𝑖𝑑𝑖𝑛𝑔 𝑜𝑢𝑟 𝑐𝑢𝑠𝑡𝑜𝑚𝑒𝑟𝑠 𝑎𝑛𝑑 𝑝𝑎𝑦𝑙𝑜𝑎𝑑 𝑜𝑝𝑒𝑟𝑎𝑡𝑜𝑟𝑠 𝑤𝑖𝑡ℎ 𝑎 𝑏𝑒𝑡𝑡𝑒𝑟 𝑡𝑎𝑐𝑡𝑖𝑐𝑎𝑙 𝑝𝑟𝑜𝑑𝑢𝑐𝑡 𝑎𝑛𝑑 𝑎 𝑠𝑎𝑓𝑒𝑟 𝑓𝑙𝑦𝑖𝑛𝑔 𝑒𝑛𝑣𝑖𝑟𝑜𝑛𝑚𝑒𝑛𝑡".
Dino Saija, Head of Mission Management System ITA Leonardo Helicopters

🎯 𝐋𝐞𝐨𝐧𝐚𝐫𝐝𝐨 𝐇𝐞𝐥𝐢𝐜𝐨𝐩𝐭𝐞𝐫𝐬 has adopted 𝐎𝐏𝐄𝐍𝐒𝐈𝐆𝐇𝐓 for cognitive enhancement in 𝐥𝐚𝐰 𝐞𝐧𝐟𝐨𝐫𝐜𝐞𝐦𝐞𝐧𝐭, 𝐒𝐞𝐚𝐫𝐜𝐡 𝐚𝐧𝐝 𝐑𝐞𝐬𝐜𝐮𝐞, and 𝐦𝐢𝐥𝐢𝐭𝐚𝐫𝐲 𝐨𝐩𝐞𝐫𝐚𝐭𝐢𝐨𝐧𝐬.
OPENSIGHT is seamlessly integrated into Leonardo's Mission Cabin Computer, delivering innovative advancements in geospatial situational awareness for payload operators and 𝐨𝐧𝐜𝐞 𝐚𝐠𝐚𝐢𝐧 𝐋𝐞𝐨𝐧𝐚𝐫𝐝𝐨 𝐜𝐡𝐨𝐨𝐬𝐞𝐬 𝐎𝐏𝐄𝐍𝐒𝐈𝐆𝐇𝐓: 𝐓𝐡𝐞 𝐈𝐧𝐝𝐞𝐩𝐞𝐧𝐝𝐞𝐧𝐭 𝐚𝐧𝐝 𝐕𝐞𝐫𝐬𝐚𝐭𝐢𝐥𝐞 𝐃𝐞𝐜𝐢𝐬𝐢𝐨𝐧 𝐒𝐮𝐩𝐩𝐨𝐫𝐭 𝐒𝐲𝐬𝐭𝐞𝐦 𝐟𝐨𝐫 𝐇𝐄𝐋𝐈𝐀𝐖𝐀𝐑𝐄𝐍𝐄𝐒𝐒, the new Leonardo Helicopters' cutting-edge Mission Management System (MMS).

READ MORE: Leonardo chooses OPENSIGHT DSS for its HELIAWARENESS (flysight.it)

Stay tuned for more updates from the EUROPEAN ROTORS event, where FlySight will be at booth #703 

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The evolution of helicopter mission systems, progressing from basic controls to cutting-edge tech like AR, AI, and turnkey solutions. Although the core controls stay the same, these advancements are essential for helicopters to thrive in our changing world.
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Last month, I wrote about why I think AI will not eliminate the ASO job but how it will affect the standard duties of an ASO. This month, I will highlight the specific operational ways AI will affect the ASO profession.

ASOG Article of the Month | September 2023

ASOG Author | Patrick Ryan

AI is likely to significantly impact the profession of Airborne Sensor Operators in various ways. The ASO profession involves monitoring and controlling sensors on aircraft, such as drones, surveillance planes, or surveying aircraft, to gather and analyze data for various purposes, including commercial, public safety, and military data collection. Here are some specific ways AI may affect this profession:

Automation of Routine Tasks - AI can automate routine tasks involved in operating sensors, such as data collection and basic data analysis. This can reduce the workload on sensor operators and allow them to focus on more complex and critical aspects of their job.

Improved Data Processing - AI can enhance data processing and analysis speed and accuracy. It can quickly identify patterns, anomalies, or objects of interest within the sensor data, helping operators make informed decisions more rapidly.

Enhanced Situational Awareness - AI can provide real-time data fusion and analysis, presenting operators with a comprehensive and easily understandable picture of the situation. This can improve situational awareness and decision-making.

Reduced Human Error - AI can help minimize human error, which is crucial in applications like surveillance and reconnaissance, where accuracy is paramount. AI systems can maintain consistent performance without fatigue or distractions.

Extended Flight Times - In the case of Unmanned Aerial Vehicles (UAVs), AI can optimize flight paths and manage energy resources more efficiently, potentially extending the duration of missions and reducing the need for frequent operator intervention.

Training and Simulation - AI can be used in training and simulation environments to create realistic scenarios for sensor operators to practice and improve their skills without actual flight missions.

Augmentation of Operator Skills - AI can be a valuable tool for sensor operators, providing additional information, suggestions, and insights during missions, ultimately augmenting their skills and decision-making capabilities.

Reduction in Workforce – On the negative side of things, while AI can augment human operators, it might also reduce the number of personnel required for specific tasks as Automation becomes more prevalent in sensor operations.

Summary

AI will likely transform the ASO profession by automating routine tasks, enhancing data analysis capabilities, and improving situational awareness. As I mentioned in Part I, Operators will need to adapt to these changes by acquiring new skills, understanding AI systems, and addressing ethical and legal considerations associated with AI-powered sensor operations.

With this, no worries about losing your job. Human operators' unique skills, judgment, and oversight will remain essential in airborne sensor operations for the expected future.

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ASOG Focus Area | Training & Education

Source | ASOG Training Center

Suppose you're an Airborne Sensor Operator or a non-rated crewmember (Observer, Host Operator, Flight Med Tech, etc.) who regularly flies. Do you have the right aircrew role & responsibility perspective or focus? One aspect of this role is how active or attentive you are, from mission planning to debriefing. This attentiveness or attitude differentiates a passenger or active aircrew member. So, what are the signs of an ASO acting like a passenger?

12 Signs You're a Passenger

An Airborne Sensor Operator is primarily responsible for operating and managing sensors and data collection equipment on board aircraft, drones, or other aerial platforms. Their role is crucial in various applications, including surveying, surveillance, mapping, and environmental monitoring. Here are signs that an ASO may appear more like a passenger than an active crewmember:

  1. Neglecting Sensor Operation - Failing to actively monitor, adjust, or troubleshoot sensor equipment during the mission is a clear sign of passivity. An operator should be constantly engaged with the sensors.
  2. Inattentiveness to Data - Not paying attention to data streams, displays, or sensor readings can indicate a lack of engagement in the data collection process.
  3. Lack of Communication - Operators must communicate effectively with other crew members, such as pilots, analysts, or mission coordinators. A lack of communication or failure to report issues or observations can be concerning.
  4. Nonchalant Attitude - Displaying a casual or disinterested attitude toward mission objectives, safety procedures, or standard operating procedures can indicate passivity.
  5. Overreliance on Automation - While automated systems are standard in sensor operations, operators who excessively rely on automation without actively monitoring the equipment or data can become passive.
  6. Failure to Respond to Alerts or Anomalies - Ignoring or not responding promptly to sensor alerts, equipment warnings, or data anomalies can signify passivity.
  7. Ignoring Mission Objectives - Operators should be focused on achieving mission objectives. Disregarding or not actively contributing to these objectives can indicate disengagement.
  8. Lack of Adaptability - In dynamic situations or changing mission requirements, operators who fail to adapt or provide input for decision-making may not be actively engaged.
  9. Physical Signs - Slouched posture, fatigue, or not actively manipulating sensor controls can indicate passivity.
  10. Disinterest in Training - Failing to stay updated with training, not keeping up with advancements in sensor technology, or not following best practices can lead to a passive approach to sensor operations.
  11. Passenger-Like Behavior - An operator who seems more interested in non-mission-related activities, such as socializing with other crew members, chatting, or focusing on personal matters during critical mission phases, may not be actively engaged.
  12. Lack of Data Review - Not actively reviewing or analyzing collected data or failing to provide input to data analysts or decision-makers can indicate passivity.

Summary

It's essential to remember that effective sensor operation is critical for mission success, safety, and the quality of data collected. Any signs of passivity or disengagement from the operator can have severe consequences in various applications, including military surveillance, search and rescue, environmental monitoring, and disaster response. If you observe yourself or other crew members exhibiting these signs, addressing the issue is essential to ensure mission objectives are met and data quality is maintained.

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Ever since the invention of helicopters, the technology has had military applications that have changed the face of warfare, reconnaissance and even search and rescue operations in front-line operations. Helicopter cockpit technology is constantly changing and evolving, pushing forward the advancement of military use through the incorporation of highly developed programming and software, as well as refined hardware. 

The result is that the helicopter is still as relevant – if not more so – in the modern military than ever before. In this article, we’ll look at new and emerging helicopter cockpit technology including the advancement in HUDs, pilot control and even pilot seating, as well as how the modern helicopter dashboard has changed and how AI and AR could revolutionise the future of cockpit development. 

How are helicopters being used in the military?

Helicopters are major assets in the modern military, playing crucial roles in a variety of applications. Attack helicopters are designed to engage the enemy and carry a much larger payload than other types of helicopters. They’re fast, incredibly manoeuvrable, and capable of flying at low altitudes, delivering close air support to ground forces.  

The most common role for helicopters in the military is as transport and utility vehicles, moving troops quickly to specific locations and providing logistical support such as resupplying FOBs.  

Reconnaissance and observation helicopters play a vital role in tactical planning, gathering data in real-time and relaying it back to ground command centres. The information they gather can be essential in mission planning, especially in fast-moving, fluid theatres. 

Search and Rescue helicopters are specially kitted out to provide immediate triage capabilities on the move. Without these SAR helicopters, many injured military personnel and civilians would not be alive today. 

Military helicopters are being used to deliver the full range of services, from troop deployment to SAR, information gathering to air support for ground troops. Incorporating the use of advanced avionics, helicopter cockpit technology and stealth and survivability enhancements, the role of helicopters in the modern military is now more important than ever. 

How have helicopter cockpits evolved? 

The earliest helicopter cockpit was a simple, ‘bear bones’ layout with very little in the way of refinements. Even the advent of autopilot in the mid-20th century was just a small advancement. The real leaps forward have come over the last 30 years, with the development of compact equipment and cockpit digitalization and the emergence of Augmented Reality (AR) software.  

The key aspect of cockpit development has been the miniaturisation of equipment, allowing aircraft to carry far more technology than ever before. For helicopters involved in operations such as reconnaissance and Search and Rescue, the creation of AR and its incorporation into intuitive and user-friendly equipment has been the biggest step forward, making the process of information-gathering or even combat operations easier. Incorporating this cockpit technology into equipment that operators are already familiar with not only reduces training time but can also contribute to the success of a mission. 

The different elements that make up a cockpit  

Military helicopters are expensive and fitted out to fulfil a specific role. This means that they incorporate a lot of technology and hardware that you won’t find in civilian vehicles. However, some elements are universal and part of the anatomy of every helicopter in the air today. The only variations are in the application of the more technologically advanced aspects of the vehicle. 

  • Fuselage – the main body of the helicopter and, thanks to the advancement of the use of aluminium in aviation, are now lighter and stronger which in turn makes the aircraft easier to fly, more fuel efficient and more manoeuvrable. This translates to more time airborne and greater stealth and agility – all key factors in a combat aircraft. 
  • Cyclic control – the heart of a helicopter cockpit is the cyclic control or ‘stick’. This allows the pilot to control the pitch of the rotor blades using the cyclic pitch and collective pitch levers to tilt the aircraft backwards or forwards and side to side. 
  • Collective control – responsible for the elevation and descent movement of the craft. 
  • Foot pedals – on helicopters with tail rotors, the foot pedals control the deflection of the tail rotor. 

Flying a helicopter is said to be the most difficult thing to do in avionics. It’s akin to rubbing your stomach, patting your head and doing a jig with your feet all at the same time! However, the advancements in helicopter cockpit technology have made things a lot easier for pilots and crew, in particular the development of four-axis Digital Automatic Flight Control Systems (DAFCS), which are in essence autopilots for helicopters.  

The inclusion of DAFCS has increased the range and capabilities of military helicopters immeasurably. Today, they form the basis of all military craft and are now being augmented with a host of new technologies. 

Helicopter technology and the future evolution of advanced cockpits 

The helicopter cockpit is a very different environment to what you would find in earlier generation craft. Everything from the seat to onboard diagnostics, augmented reality and pilot controls are constantly evolving. When you consider that the lifespan of a helicopter interior is between seven and eight years, it’s crucial to the development of the industry that innovation continues to move forward.  

The advantage of this reasonably fast turnaround is that aircraft can be retro-fitted with the most up-to-date technology on a general refit. However, thanks to miniaturisation through surface-mount components and micro-electronics, interim refits can be carried out quickly, bringing even an older aircraft up to spec relatively easily. 

HUD – the expansion of the Heads Up Display for pilots 

HUD gives guidance information during flight, operations and landing, especially at night or in low-level light. Previously, all a pilot had were night vision goggles and a radio altimeter. Now, rather than having a Tactical Flight Officer call out the heights to the pilot, HUD can allow the pilot to process instant information relayed from the aircraft’s sensors and RADULT configuration.  

For the future, HUDs are starting to incorporate far more technical information including augmented reality layers so that the pilot has greater spatial awareness within a 3D rendition of the landscape. This can include everything from proximity to power lines to altitude, allowing for more nuanced navigation.  

This highly advanced helicopter cockpit technology is already finding its way into craft such as the Lynx and has found real favour with Navy pilots who may have to land on aircraft carriers or helicopter pads on ships at sea. The continually updated information provided by a HUD allows the pilot to make fine adjustments to their approach for a safer landing or take-off, even in rough weather. 

Advancing SAR capability equipment 

One of the key roles we’ve already discussed is the use of helicopters for Search and Rescue, often at night, in hostile terrain, or adverse weather conditions. New military platforms are incorporating advanced SAR systems that use electro-optical cameras and solid-state electronically scanned radar. The Norwegian Air Force’s latest Leonardo AW101 All-Weather SAR is one of the best examples of this technology crossing over into the civilian arena too. 

Augmented Reality systems play a key role in civilian SAR, and satellite-based systems with Performance-Based Navigation provide a greater degree of flexibility for instrument flight rules. These can be grandfathered over to military operations, especially for target surveillance, allowing a helicopter fitted with this technology to direct ground troops or relay accurate target data back to command centres.  

Commercial systems that have a place in military aircraft 

The crossover between military and civilian helicopter cockpit technology is considerable, particularly when it comes to safety systems and operational technology. These include: 

  • Terrain Avoidance Warning Systems 
  • Obstacle Protection LiDAR Systems 
  • Obstacle Warning Systems 
  • Traffic Collision Awareness Systems 
  • Synthetic Vision System  
  • Weather radar 

The beauty of modern cockpit technology is that all of these systems can be incorporated into compact units that can easily be retro-fitted into a cockpit. The systems used to operate these are intuitive and use units that many flight operators and pilots are already familiar with, including touch-screen technology. This fingertip technology makes it incredibly easy to operate and manage data systems in real-time, without impacting the capabilities of the pilot.  

The ease of use also means that the risk of pilot fatigue is reduced, allowing pilots to fly for longer without compromising their performance or the safety of the aircraft and everyone onboard. 

Synchronised mapping 

One of the most recent developments and one that could influence the future of helicopter cockpits in the military and civilian arenas is the Airbox ACANS or Aviation Command Aircraft Navigation System and iPad-compatible Electronic Flight Bags or EFBs. These allow synchronised mapping in real-time with other users such as the onboard Tactical Officer or even ground command units.  

This information can ‘flag’ up search areas and overlay them onto a HUD or ACANS map. The fact that these are simple ‘bolt-on’ applications makes them super-easy to implement quickly into any aerial platform, whether that’s for civilian SAR or military reconnaissance uses. 

FlySight Solution – bringing AR into the future of the helicopter cockpit 

For years, FlySight has been at the cutting edge of innovation and technology, producing augmented reality programming that slots seamlessly into any helicopter control panel. OPENSIGHT Mission Console is specifically designed to support airborne units, delivering augmented reality in a layer system that integrates multi-layered moving maps. The result is real-time information relayed directly to the operator and to ground command units.  

Improved geospatial awareness, greater refinement in both mission and SAR activities, and reduced operator fatigue all come together to make OPENSIGHT Mission Console one of the most advanced airborne AR systems operating today. 

To find out more about Mission Console, contact us in confidence for further information, or download the ⬆ brochure and technical specifications now.

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ASOG Focus Area | News & Information

Source | ASOG Desk Editor

Fantastic News! Spur Aviation Services is now an ASOG corporate supporter. Spur Aviation Services, LC is a Part 135 company based in Twin Falls, Idaho (KTWF), and has been in business since 2002. Their specialty is providing first-response Air Attack Aircraft to support Wildland Fire Fighting Operations in the summer. In addition, they provide aircraft for Charter work around the US and expand their services to include C4ISR support.

We look forward to future engagements with Spur Aviation to help shape the Airborne Sensor Operator profession.

To learn more about Spur Aviation and its services, check them out on the ASOG Corporate Supporter page (click their Logo). For a personal touch, connect with Joe Werner (Spur ISR Project Manager). He just became an ASOG member.

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New ASOG Author – Andrea Masini

ASOG Focus Area | News & Information

Source | ASOG Desk Editor

We’re proud to announce Andrea Masini just joined the ranks of ASOG Authors. In the past year, Andrea has posted several very informative articles on the ASOG homepage related to new technologies that relates to the ASO community. Some of his articles include:

To learn more about Andrea, jump over to the ASOG Team page and check out his biography under ASOG Authors. If you want to network with Andrea, click the “Friend” button on his ASOG profile…this will allow you to e-mail Andrea on the ASOG e-mail webpage service.

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On the Road Again – ASOG Ambassador

ASOG Focus Area | News & Information

Source | ASOG Desk Editor

2023 is quickly coming to an end. However, there are still many trade shows & conferences scheduled. Speaking of that, George DeCock is hitting the road and attending some of these shows.

If you didn't know, George is our ASOG Ambassador – and not coincidentally our first ASOG member. As he travels, he engages aircrew and industry to support the mission of ASOG.

With that, George just sent us his updated 2023 World Tour schedule. If you're attending any of the shows below and want to network with a fellow ASOGer, contact George. Tell him at g.decock@airbornetechnologies.at or +33675758920, which shows you'll be visiting. Without a doubt, if you meet up with George at one of these events, you won't regret it—his knowledge, experience, and network of Who's Who is extensive:

  • GDH/17-19OCT - Warsaw/Poland (stand & presentation)
  • GSOF/24-26OCT - Brno/Czech Republic
  • AD&S/6-9NOV - BKK/Thailand (visit)
  • Airshow/13-17NOV - Dubai/UAE (stand and TwinOtter ISR aircraft)
  • EuropeanROTORS/28-30Nov - Madrid/Spain (stand)

If you don't know George, for 30+ years, George has been involved in the engineering and marketing of LoS/BLoS Coms, EW, Radar, EO/IR, and ISR systems. He presently enjoys work and life as the SCAR-pod and Sensors/Mission Specialist for Airborne Technologies, concentrating on new ISR technologies and new applications of existing ones. George focuses on developing new techniques, sensors, and customer requirements worldwide, specifically emphasizing any technology that will further enhance the capabilities of the Airborne LINX/SCAR-pod and ultimately reduce crew workload and increase mission efficiency.

He firmly believes in applying R-COTS and open-architecture software for all airborne surveillance systems. Furthermore, he is convinced that the future belongs to using small, multi-purpose aircraft and pods equipped with integrated multi-role sensors. He is working on several programs optimizing payloads for manned and unmanned surveillance missions and will share his experience and views on new ISR capabilities for airborne platforms. As a true Ambassador, he is always ready to talk about ASOG and sign up new members at any airshow or conference.

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ASOG Focus Area | Training & Education

Source | ASOG Training Center

As most know, Airborne Sensor Operators (ASO) play a crucial role in collecting and analyzing data from various sensors mounted on aircraft, such as drones, survey, or reconnaissance planes. Geographic information systems (GIS) are essential tools for ASOs as they help collect, manage, analyze, and visualize spatial data. So, how do GISs assist ASOs, and what are some of the traditional GIS platforms used by ASOs today?

Related ASO GIS Functions

Regarding how GIS technology integrates into the daily life of an ASO, it ranges across the full spectrum of sensor operator duties. Here's how ASOs routinely use geographic systems:

  • Mission Planning - GIS is used to plan flight paths and define the areas of interest for data collection. This involves identifying geographic coordinates, altitude, and timing for the mission.
  • Sensor Configuration - GIS is employed to configure sensors and ensure they are set up correctly to capture the required data, such as aerial imagery, thermal data, LiDAR scans, or multispectral imagery.
  • Real-time Monitoring - During the flight, GIS software helps operators monitor the aircraft's position, altitude, and sensor status in real time. This ensures that data is being collected as planned.
  • Data Collection - Geographic systems enable operators to synchronize sensor data with the aircraft's GPS coordinates. This spatial reference is crucial for accurately geo-referencing the collected data.
  • Data Management - GIS organizes and manages the vast amount of data collected during a mission. This includes storing, indexing, and cataloging data files for future analysis.
  • Data Analysis - Geographic systems provide tools for operators to analyze the collected data. They can overlay different layers of information, perform spatial queries, and extract valuable insights from the data.
  • Quality Control - GIS tools help operators check data quality by comparing collected data to reference layers or aerial imagery. Any anomalies or errors can be identified and corrected.
  • Reporting and Visualization - Geographic systems allow operators to create maps, reports, and visualizations to communicate findings effectively. This is crucial for decision-makers and stakeholders who may not be GIS experts.
  • Geospatial Integration - Operators often integrate data from airborne sensors with existing geographic information, such as maps, land use data, or infrastructure details. This integration enhances the value of the collected data.
  • Post-Mission Analysis - After the mission, GIS tools help operators conduct in-depth analysis, such as change detection, terrain modeling, or environmental assessments, using the collected data.
  • Archive and Retrieval - GIS systems assist in archiving and indexing mission data, making retrieving and referencing for future missions or research easier.
  • Collaboration - Geographic systems facilitate collaboration among operators, analysts, and other stakeholders by providing a common platform for data sharing and discussion.

Overall, using geographic systems by ASOs ensures efficient and accurate data collection, analysis, and reporting, vital for various applications, including environmental monitoring, disaster response, agriculture, and defense.

Traditional GIS Platforms

As mentioned, ASOs use a variety of Geographic Information Systems (GIS) software tools depending on their specific needs and requirements. Here are some of the traditional GIS software commonly used by ASOs:

  • Esri ArcGIS - Esri's ArcGIS suite is one of the most widely used GIS platforms globally. It offers a comprehensive range of data collection, analysis, and visualization tools. ArcGIS Desktop, ArcGIS Pro, and ArcGIS Online are some of the commonly used components.
  • QGIS (Quantum GIS) - QGIS is an open-source GIS software that provides many features and functionalities similar to proprietary GIS solutions. It is known for its user-friendly interface and the ability to work with various data formats.
  • ENVI - ENVI is a specialized software for processing and analyzing remote sensing data, making it particularly useful for ASO. It offers advanced image analysis capabilities.
  • ERDAS IMAGINE - ERDAS IMAGINE is another popular software for remote sensing and spatial analysis. It supports various remote sensing data formats and provides image processing and interpretation tools.
  • Global Mapper - Global Mapper is known for its ease of use and affordability. It allows operators to work with various spatial data types and perform 2D and 3D analysis.
  • Trimble eCognition - Trimble eCognition is used for advanced image analysis and object-based image classification. It is valuable for extracting information from remotely sensed data.
  • PCI Geomatics - PCI Geomatics software is focused on remote sensing, satellite imagery, and aerial photography. It offers tools for data preprocessing, analysis, and sharing.
  • GRASS GIS (Geographic Resources Analysis Support System) - GRASS GIS is an open-source software focusing on geospatial data analysis and modeling. It's highly extensible and has a dedicated user community.
  • Opticks - Opticks is open-source remote sensing software that provides tools for processing and analyzing geospatial data, including imagery and point clouds.
  • L3Harris Geospatial ENVI SARscape - This software specializes in synthetic aperture radar (SAR) data processing and analysis, which is valuable for applications like monitoring changes in terrain and infrastructure.

Again, this is just a past and present view of some of the GIS platforms on the market. The GIS software landscape is dynamic, and new tools are continuously emerging. Additionally, the choice of GIS software depends on factors such as the type of data collected, the specific analysis requirements, budget constraints, and user preferences. Operators often select the software that best suits their needs and integrates well with their existing workflows. Therefore, it's essential to stay up-to-date with the latest developments in the GIS industry to make informed software choices.

Summary

As you can see, GIS platforms play a significant role in an ASO's daily job, i.e., from pre-flight to post-flight. A good understanding or knowledge of GIS is critical to being a professional ASO.

If you're interested in adding GIS experience or knowledge to your professional development to-do list, many online courses provide basic to advance training. Additionally, obtaining certifications related to GIS will enhance your value as an ASO and may open new career doors - hint, hint!

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Calling all Airborne Sensor Operators!

Overwatch Imaging is trying to use AI's power to improve sensor operators' lives. Matt Nugent, Overwatch Imaging VP of Product Management and an ASOG Member, runs this project. He wants to hear from you about the details of your work and what challenges or problems you encounter in the work you do. Overwatch offers $100 gift cards in exchange for 30 minutes to 1 hour of a sensor operator's time for an interview.

From an ASOG perspective, this is an excellent chance for the frontline ASOs to have a say in the next generation of technology.

If interested in helping support them with their mission, please fill out the quick survey below, and Overwatch will reach out to schedule an interview.

Pre-Interview Survey 

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Should Airborne Sensor Operators fear the future regarding Artificial Intelligence (AI)? The answer, at this point in time, is yes and no. Because the AI revolution is just starting to expand in all directions, there is still much to learn about its effects. However, for today and the near future, ASOs should have no fear!

 ASOG Article of the Month | September 2023

ASOG Author | Patrick Ryan

In this two-part article, I'll highlight why I think AI will not eliminate the ASO job but how it will affect the standard duties of an ASO. So, let's start with reasons AI will not eliminate the ASO.

The bottom line is AI is about "Automation." AI can potentially automate specific tasks within the airborne sensor operator job. However, it is unlikely to eliminate the job but only change how ASOs operate. Here are several reasons why the airborne sensor operator profession is likely to persist in the long term:

Complex Decision-Making - While AI can assist with data analysis and decision support, complex, context-dependent decisions often require human judgment. Sensor operators are trained to make critical decisions based on the data they receive, considering situational factors, mission objectives, and ethical considerations.

Human Oversight - In many applications, especially those involving military or public safety, there is a strong need for human oversight and control. Humans are responsible for interpreting the data, making decisions that have significant consequences, and ensuring that using sensors aligns with legal and ethical standards.

Adaptability - AI systems are designed for specific tasks and scenarios. They may struggle with unexpected or novel situations that require adaptability and creativity, which are qualities that humans possess. Sensor operators can adapt to changing circumstances and make on-the-fly decisions as needed.

Technical Maintenance - The operation and maintenance of the sensor equipment and troubleshooting technical issues often require specialized human expertise. Sensor operators play a crucial role in ensuring that the equipment functions correctly.

Ethical and Legal Considerations - Using AI in sensitive and potentially high-stakes operations raises ethical and legal concerns. Human operators are needed to ensure compliance with laws, regulations, and ethical guidelines and make value judgments in complex situations.

Interpersonal Skills - In missions that involve communication with other team members or stakeholders, such as relaying information to ground personnel or coordinating with other aircraft, interpersonal skills, and effective communication are vital. These skills are not easily replaceable by AI.

Unforeseen Challenges - In dynamic environments, unforeseen challenges and uncertainties may arise that require human problem-solving abilities. Human operators can adapt and strategize in response to unexpected events.

While AI can augment the capabilities of airborne sensor operators and automate specific tasks, it is more likely to be viewed as a tool to enhance human performance rather than a complete replacement. The profession may evolve as operators increasingly work alongside AI systems, requiring them to acquire new skills and adapt to changing roles. However, human operators' unique skills, judgment, and oversight will likely remain essential in airborne sensor operations for the foreseeable future.

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ASOG 2022 Focus Area | Industry Support

Source | ASOG Desk Editor

Great News! Overwatch Imaging is now an ASOG corporate supporter. Overwatch Imaging develops automated airborne imaging solutions for time-critical missions in challenging environments using cutting-edge software and innovative sensor payloads that leverage the latest advancements in computer vision, GPU processing, Artificial Intelligence, and sensor fusion to scan wide areas, find small objects of interest and deliver actionable geospatial intelligence quickly and efficiently, i.e., the kit ASOs use.

If you didn’t know, overwatch Imaging was founded in 2016 in Hood River, Oregon, and serves customers on six continents around the world, with missions ranging from fire, flood, and oil spill mapping to counter-narcotics, border security, tactical intelligence, and search and rescue.

We look forward to future engagements with Overwatch Imaging to help shape the Airborne Sensor Operator profession.

If you want to learn more about Overwatch Imaging and its products & services, check them out on the ASOG Corporate Supporter page (click their Logo). For a personal touch, connect with Matt Nugent (Product Manager). He just became an ASOG member.

ASOG Corporate Supporters Directory

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As an Airborne Sensor Operator (ASO), you should know the Ins & Outs of the types of aircraft you operate daily (manned & unmanned aircraft). One aspect is understanding the common hazards associated with a particular aircraft platform. If you plan to fly regularly as an aircrew member in a helicopter, do you know the basic safety or hazards related to helicopter operations?

 ASOG Focus Area | Aviation Safety

Source | ASOG Safety Center

As an Airborne Sensor Operator or aircrew member, flying a helicopter can be an exciting and rewarding experience, but it also comes with inherent risks and dangers due to the complexity of the aircraft and the unique challenges of rotary-wing flight.

As a professional aircrew member, it's essential to understand the dangers of any flight operation, whether fixed-wing, rotor, manned, or unmanned aircraft flying. Understanding the key dangers will help you mitigate or avoid these hazards. When it comes to manned helicopters, the top dangers are:

Aircraft

Limited Glide Capability - Unlike fixed-wing aircraft, helicopters do not glide efficiently. If the engine fails, the pilot must quickly execute autorotation to land safely.

Mechanical Failures - Helicopters have numerous moving parts, and mechanical failures can occur. Problems with the engine, transmission, rotor system, or other critical components can lead to accidents.

Tail Rotor Issues - Loss of control due to tail rotor failures or damage is a significant risk. The tail rotor is essential for stability and counteracting torque from the main rotor.

Power-to-Weight Ratio - Helicopters require a high power-to-weight ratio to maintain lift and control. If the aircraft becomes too heavy or loses power, it may be unable to maintain altitude or land safely.

Flight Environment

Weather Conditions - Helicopters are more susceptible to adverse weather conditions than fixed-wing aircraft due to their slower speeds and lower altitude operations. Turbulence, wind shear, fog, rain, and ice can pose significant risks.

Inadvertent IMC (Instrument Meteorological Conditions) - Entering instrument meteorological conditions unintentionally can be dangerous for helicopter pilots, as they may not be adequately trained or equipped for instrument flight.

Spatial Disorientation - Helicopter pilots can experience spatial disorientation, especially in low-visibility conditions. Without external visual references, they may struggle to maintain proper orientation.

High Workload - Operating a helicopter requires constant attention to multiple controls and systems, leading to a high pilot workload. This can be mentally and physically demanding, especially during critical phases of flight.

External Influences - Wind gusts, turbulence, and weather phenomena like microbursts can significantly affect the stability and control of helicopters.

Flight Ops

Low Altitude Operations - Helicopters often operate at low altitudes, resulting in limited time and space to react to emergencies or obstacles. This makes them vulnerable to power failures or other mechanical issues, especially during takeoff and landing.

Fuel Management - Running out of fuel during a flight can lead to a loss of engine power and emergency landing situations.

Wire Strikes - Flying at low altitudes increases the risk of colliding with power lines, communication towers, or other obstacles that may not be easily visible.

Wire and Obstacle Avoidance - Helicopter pilots must constantly scan for wires, poles, and other obstacles, especially during low-level flying, to avoid collisions.

Autorotation - In the event of an engine failure, helicopters use autorotation to descend and land safely. However, autorotation requires precise pilot skill and timing and can be challenging to execute correctly.

Summary

Probably the number one hazard is Human Error. Mistakes by the pilot, sensor operator, maintenance crew, or ground personnel can lead to accidents. Human factors, such as fatigue, stress, and complacency, can also play a role in accidents.

To mitigate these dangers, helicopter crews should undergo extensive training, follow strict safety protocols, conduct thorough pre-flight checks, and rely on advanced technology, including safety equipment and navigation aids. Additionally, flight departments should enforce rules and standards to enhance helicopter safety. Nevertheless, helicopter flying remains a challenging and high-risk endeavor that requires constant vigilance and skill but is also fun.

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