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INTEL ® FALCON™ 8+ UNMANNED AIRCRAFT SYSTEM ENGLISH MAY 2018...
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No license of any kind, whether express, implied, statutory, by estoppel or otherwise to any intellectual property rights, technology, software, in each case whether in whole or part, is granted by Intel, or any of its subsidiaries, in this User Manual.
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F8 to the F8+ • Created instructions for Intel® High Resolution Imaging Payload • Created instructions for Intel® Imaging Payload with Obstacle Avoidance • Updated battery charging instructions • Added additional system warnings and delete obsolete warnings •...
UAV inspections and surveying operations. Small and portable with a maximum take-off weight of only 2.8 kg, but with a payload weight of 0.8 kg, the Intel® Falcon™ 8+ UAV can carry professional cameras like the Sony Alpha 7R, offering the full quality of an airborne image studio.
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• GPS-Mode will limit your maximum speed. Flying the Intel® Falcon™ 8+ UAV at wind speeds above 12 m/s is not recommended. Please note that wind conditions on the ground and in the air can differ.
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• The pilot of an Intel UAV should always act according to his or her best judgment focusing on the safety of the populace and the environment within which he or she is flying.
(any loose part, strange noise from the motors, or any other unusual occurrence), please contact support through your reseller, if you purchased through a reseller, or support at Intel, if you purchased directly from Intel. Please include a detailed description of your observation and photos if applicable.
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6. Is the User SD card of the Check the User SD card in the back of the “Black Box” (flight logger) Intel® Falcon™ 8+ UAV. If on the Status Dis- □ correctly inserted? play of the CTR there is the message No user...
2. Make sure to have an empty and correctly formatted SD card inserted in the camera. □ 3. Are there two batteries fully inserted into the Intel® Falcon™ 8+ UAV, with the colored label facing upwards and secured by the retaining clips? □...
8. The end of the boot process is marked by a triple beep emitted by the □ Intel® Falcon™ 8+ UAV. During boot up, the Intel® Falcon™ 8+ UAV does not need to stand still. It can be moved - for example, it can be started from a moving boat.
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19.Switch the motors on (with both hands, only in idle mode). □ While the Intel® Falcon™ 8+ UAV is on the ground with running motors, always keep the left control stick, which controls the height, in the fully downward position.
1.4. POST-FLIGHT CHECK You must follow these steps closely for a post-flight check: Table 1.4: Post-flight Check List □ 1. Before landing the Intel® Falcon™ 8+ UAV, adjust the camera to a horizontal position. 2. Land the Intel® Falcon™ 8+ UAV. □...
• The Intel® Powerpack Batteries 2.1. THE INTEL® FALCON™ 8+ UAV The following section describes the single parts of the Intel® Falcon™ 8+ UAV. Figure 2.1: The Intel® Falcon™ 8+ UAV Components The Intel® Falcon™ 8+ UAV consists of several components:...
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USER MANUAL INTEL® FALCON™ 8+ UAS Figure 2.1: The Intel® Falcon™ 8+ UAV Components (continued) The Intel® Falcon™ 8+ UAV bottom view, Carbon Cross with center cross piece, Data antenna arrangement: Video The data link antennas (2.4 GHz) as well as the video link antennas (5.8 GHz) are...
The CTR serves as an interface device to the flight system. It is pre-programmed and ready to use. The Status Display is used for communication between the CTR and the Intel® Falcon™ 8+ UAV. The touchscreen tablet displays the live video preview from the attached camera.
USER MANUAL INTEL® FALCON™ 8+ UAS Figure 2.7: Intel® Cockpit Controller (CTR) Overview (continued) The functional elements of the CTR remote control unit are: (1) START/STOP button: starts/stops the motors when the left stick is simultaneously held down (see “STARTING AND STOPPING THE MOTORS”...
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USER MANUAL INTEL® FALCON™ 8+ UAS Figure 2.7: Intel® Cockpit Controller (CTR) Overview (continued) A headphone port (mini jack) is located on the lower right-hand side of the CTR remote control unit (1). It is possible to connect headphones, which might be helpful under noisy conditions.
2.2.2. The Touchscreen Tablet The Intel® based Windows® touchscreen tablet has an 8.3-inch screen with a resolution of 1920 X 1200 pixels. It is directly mounted on the remote control unit of the Intel® Cockpit Controller (CTR) and cannot be removed.
Thanks to the 2nd monitor, a camera operator can control the video preview of the camera used. It is connected to the CTR via the HDMI port by a cable. The HDMI port is in the back of the CTR in the upper left corner (see “Intel® Cockpit Controller (CTR) Overview” on page 24).
Because of the deep integration of cameras, it is possible to change settings like aperture, shutter speed or zoom (depending on the camera) directly from the remote control unit of the Intel® Cockpit Controller (CTR) and/or the Cockpit Control application on the touchscreen tablet while the system is airborne. To ensure complete integration into the Intel®...
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USER MANUAL INTEL® FALCON™ 8+ UAS Figure 2.12: Camera Control via the Intel® Cockpit Controller (CTR) All cameras integrated on the Intel® Fal- con™ 8+ UAV can be controlled via the CTR. Several switches on the CTR are assigned to camera controls.
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USER MANUAL INTEL® FALCON™ 8+ UAS Figure 2.12: Camera Control via the Intel® Cockpit Controller (CTR) (continued) Setting the Camera Angle The Main Screen of the Status Display shows the camera angle. 0° means the camera is looking straight forward and is leveled horizontally. -90° means the camera is looking down, 90°...
2.5.1. Changing a Payload (Camera) Cameras are designed to remain within their gimbal (camera mount). The complete gimbal with camera can be exchanged without tools. The Intel® Falcon™ 8+ UAV automatically identifies the attached camera and the menus of the Status Display on the CTR are changed accordingly.
The payload calibration can be done indoors with the motors switched off. 1. Attach the payload you are performing the calibration on. 2. Switch the payload ON, then the Intel® Falcon™ 8+ UAV, then the touchscreen tablet and the finally the CTR.
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PARAMETERS WILL ONLY BECOME ACTIVE AFTER RESTARTING THE SYSTEM. 8. Repeat the above steps for each new payload to be used with the Intel® Falcon™ 8+ UAV. Once a payload has been calibrated, the Intel® Falcon™ 8+ UAV will recall the settings.
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INTEL® FALCON™ 8+ UAS To re-adjust the zero position, follow these steps: 1. Switch the Intel® Falcon™ 8+ UAV and the CTR ON as usual. 2. Select the Link Loss Procedure. 3. Push the left control stick of the CTR fully upwards and hold it.
Only then should you switch off the Intel® Falcon™ 8+ UAV. If you switch off the Intel® Falcon™ 8+ UAV too early, you will cut the power supply of the camera and risk losing data.
Roll Comp. When Roll Comp. = Off the gimbal will no longer compensate On/Off roll movements of the Intel® Falcon™ 8+ UAV. This can be useful when doing dynamic video flights. 2.5.3.4. Camera Settings The following section describes the most important settings of the camera when used with the Intel®...
TZ71: https://www.panasonicstore.ie/wp-con- tent/uploads/2015/05/DMCTZ70.pdf ZS50: ftp://ftp.panasonic.com/camera/om/ dmc-zs50_adv_om.pdf Please note that the WiFi functionality of these cameras is disabled for the use with the Intel® Falcon™ 8+ UAV. Specifications of the IR camera FLIR Tau 2 640: • Thermal Imager: Uncooled VOx Microbo- lometer •...
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The micro SD card of the FLIR Tau is inserted at the side of the camera, with the contacts of the micro SD facing towards the camera lens. Each time the Intel® Falcon™ 8+ UAV is switched on, a new, subsequently numbered sub-folder (FLIR0000, FLIR0001, FLIR0002...) is created on the micro SD card.
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Always handle the gimbal with care. If you need to tilt the camera manually (when not connected or while the Intel® Falcon™ 8+ UAV is switched off), please do so very cautiously. If too much force is applied, the gear wheels of the servo motors might break.
“Adjusting the camera horizon” on page 37. Default = ON. When = Off, the gimbal will no longer Roll Roll Comp. compensate roll movements of the Intel® Falcon™ 8+ UAV. This can be Comp. useful when doing dynamic video flights. On/Off Notes Shooting parameters need to be set directly on the camera before take-off.
INTEL® FALCON™ 8+ UAS 2.5.5. Intel® High Resolution Imaging Payload The Intel® High Resolution Imaging Payload consists of a Sony RX1R II camera with a Topcon B111 GNSS receiver. When the Intel High Resolution Imaging Payload is connected, the external Topcon receiver is used as a redundancy backup receiver for the internal GPS receiver and for geo-referencing the images during post-processing.
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After doing so, switch OFF the Intel Falcon 8+ UAV. If you switch the Intel Falcon 8+ UAV OFF too early, you will cut the power supply to the camera and risk losing data.
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2.5.5.2. Camera control by the CTR This section describes how the Sony RX1R II can be operated by using the functional elements of the Intel Cockpit Controller (CTR). Figure 2.21: Sony RX1R II CTR control layout Push Button B1 (1): sets the camera to pre- defined angles +/-90°, +/-45°...
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Every time an image is triggered, the positional information is written into the log file of the Intel Falcon 8+ UAV. During post-processing this information can be extracted and combined with the images. Please see chapter “INTEL® FALCON™ 8+ UAV FLIGHT LOGS”...
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INTEL® FALCON™ 8+ UAS 2.5.5.5. Firmware update For proper operation of the payload, please make sure the Intel Falcon 8+ UAV and the payload is updated to the latest available version. Download the Intel Falcon 8+ UAV firmware from http://intel.com/FalconDownloads and install it as described in “Intel®...
The Intel® Imaging Payload consists of a Sony R10C RGB camera and an internal compute module board. Additionally the payload is equipped with Intel® RealSense™ technology, which allows the Intel Falcon 8+ UAV to detect and avoid obstacles in its flight path.
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The microSDHC bus type and speed class, along with the card manufacturer's real- world performance specifications, set the limit for how frequently images can be saved to the media during flights. Using the supplied microSDHC card, Intel has successfully validated repeated contiguous image captures of up to 500 images with a frequency of up to 1 image capture every 1.5 seconds.
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Photo images are stored on the payload SD card with the following described conventions. Every time, the Intel Falcon 8+ UAV is switched on, a new image directory with a consecutive number will be created on the payload SD card.
Video files recorded during the current flight are stored on the camera SD card (not on the payload SD card, see figure “Intel® Imaging Payload Specifications” on page 54). Directly after the flight the pilot has the possibility to transfer the recorded video files from the camera SD card to the payload SD card (see description in the following figure “Confirmation of video file transfer”...
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If too much force is applied, the gear wheels of the servo motors may break. • Because the camera is powered by the Intel Falcon 8+ UAV battery in order to save weight, the camera switches ON or OFF when the UAV is switched ON or OFF.
As soon as a valid GPS signal is available the camera date and time is set directly by the Intel Falcon 8+ UAV using the information embedded in the GPS data. Adjustable camera settings can be accessed on the left or right side of the screen of the touchscreen tablet of the CTR, when activated by tapping on the respective area in the lower left and right corner.
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The payload also contains updateable firmware. To update the payload firmware of the Intel® Imaging Payload you need to install the Intel Platform Flash Tool (PFT) Lite on a The currently installed firmware version of the payload can be checked by tapping on the “i”...
Figure 2.28: Firmware update process 1. Install the downloaded Intel Android USB driver on the same PC you installed the PFT. 2. Start the Intel PFT Lite application. 3. Open the firmware (.ZIP) file by selecting in the upper Browse...
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TURN When doing this a click can be heard. EITHER THE PAYLOAD OR THE 8. While keeping this button pressed UAV UPSIDE DOWN TO PRESS down, power ON the Intel Falcon 8+ AND HOLD THE DNX BUTTON. UAV. LEAVE PAYLOAD This will put the payload into the HORIZONTAL 0°...
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Wait for device to enumerate in OS DNX During the flashing process, the Intel PFT will be delayed at around 86% for a short time but continue. After the update is completed, the prog- ress indicator turns green and depicts the message pictured to the left.
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INTEL® FALCON™ 8+ UAS 2.5.6.5. Obstacle Avoidance (OA) Obstacle Avoidance (OA) enables the Intel Falcon 8+ UAV to get depth perception of its surroundings. This is enabled by two Intel® RealSense™ Depth Cameras, mounted on the payload, one looking towards the front and another looking 90 degrees to the left.
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Turning the OA feature ON and OFF: 1. Start the Intel Falcon 8+ UAV and take-off in GPS-Mode (if possible). 2. Tap on the OA indicator and button in the top left corner of the touchscreen tablet screen.
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Obstacle Avoidance is always disabled in Manual-Mode. Landing the UAV with Obstacle Avoidance During a descent of the UAV, if any obstacle comes into the field of view of the Intel RealSense modules within the pilot-set standoff distance, the UAV may fly backwards or sideways towards the pilot to keep the defined standoff distance.
Avoidance is not avail- nection to the RealSense modules has able. been re-established. available! If in flight and in GPS-Mode the Intel Status Display: Falcon 8+ UAV will keep its current OBSTACLE position. To avoid collisions the con- AVOID. N/A!
INTEL® FALCON™ 8+ UAS 2.6. THE INTEL® POWERPACK BATTERIES The Intel® Powerpack batteries power the Intel® Falcon™ 8+ UAV and the Intel® Cockpit Controller (CTR). The battery features a One-Button/Five-LEDs user interface, an intelligent Battery Management System (BMS), automatic balancing, storage mode and charging.
80% - 100% 2.6.1. Charging the Intel® Powerpack Batteries Upon receipt of new Intel® Powerpack Batteries, you should charge them to 60 - 80% to ensure batteries will not completely drain in storage. To charge the batteries, please use the provided power supply unit.
USER MANUAL INTEL® FALCON™ 8+ UAS The Intel® Powerpack Battery has an internal timer which keeps the battery turned ON for 3 seconds after unplugging it from the charger. When a battery with LEDs illuminated is plugged into the Intel Falcon 8+ UAV or the Intel Cockpit Controller (CTR), the respective unit powers ON automatically without the user pressing the ON/ OFF button.
(no. 1 is the LED most left, no. 5 is the LED most right). Contact the support team at Intel and provide the information which LEDs are lit. In case this state became active during a flight, please also provide a log file of this flight.
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However, storing a fully charged battery has negative effects on its life span. Battery Storage/Charging Maintenance Recommendation • Intel recommends to charge/recharge batteries to a level between 2 and 4 LED’s (40-80%) every 3 months to maintain optimal cell performance and reliability. •...
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Alternatively, send the battery for disposal back to Intel. Disposing of this product correctly will help to save valuable resources, and prevent any potential negative effects on human health and the environment, which could otherwise arise from inappropriate waste handling.
Intel® Falcon™ 8+ UAS with all its accessories. For easy one-person transportation, the Intel® Falcon™ 8+ UAS cases have retractable handles and wheels. The Intel® Backpack is not safe for air freighting, but very useful for missions in remote areas, since it is light and relatively compact.
THE FOAM INLET OF THE PAYLOAD CASE TO AVOID DAMAGES DURING TRANSPORT OR YOU MUST TRANSPORT IT IN THE SPECIAL PAYLOAD CASE (SEE FOLLOWING). Figure 2.37: Packing Instructions for the Intel® Falcon™ 8+ UAS Cases Intel® Falcon™ 8+ System Case This case is used for all necessary parts of your Intel®...
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USER MANUAL INTEL® FALCON™ 8+ UAS Figure 2.37: Packing Instructions for the Intel® Falcon™ 8+ UAS Cases (continued) Intel® Cockpit Controller (CTR) Case This case contains: CTR with mounted sun shield (1) When transporting the CTR in the case, the sunshield must be arranged like...
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The images of the items above are just for illustration purpose and the actual item(s) packed with your Intel® Falcon™ 8+ UAS may differ from the one(s) depicted here depending on, for example, which payload you ordered.
INTEL® FALCON™ 8+ UAS 2.7.2. Packing for shipping When you got your Intel® Falcon™ 8+ UAS delivered, the system case was encased in a cardboard box. In case you need to send back the UAV system, please pack the system in the respective case like described above.
Intel Falcon 8+ UAV. The available software feature packages can be purchased at any time and unlocked remotely by your Intel® Falcon™ 8+ UAS reseller. The Intel® Falcon™ 8+ UAS does not need to be sent back.
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AscTec Navigator Software even before you go out in the field. In the near future AscTec Navigator will be replaced by the advanced flight planning software Intel Mission Control. For up to date information, please check: http://www.intel.com/IntelMissionControl...
UAS reseller. Once you have purchased your software feature package, you will receive an email with your license key file "f8p_license.asc" which is required to activate the software feature packages. It may come from Intel as an email attachment or from your sales representative.
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Perpetual Software Feature Packages To check which perpetual software feature packages are activated on your system, turn ON the Intel® Falcon™ 8+ UAV, the touchscreen tablet and the CTR and confirm the Link Loss Procedure. 1. Push ENT to open the menu on the Status Display.
The Intel® Falcon™ 8+ UAV is constantly logging all flight controller data onto two different storage devices: an SD card inserted in the back of the Intel® Falcon™ 8+ UAV (User SD card) and an internal SD card, which can only be accessed by opening the canopy of the central unit (Internal SD card).
Intel Mission Control. For up to date information, please check: http://www.intel.com/IntelMissionControl It might happen that the Intel® Falcon™ 8+ UAV cannot access a logging storage device. Usually, it is caused by a mechanical connection issue or a corrupted file system on the storage device.
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FAT32, allocation unit size: 32 tus Display. Push the kilobytes). After reinserting the SD related arrow LEFT button card into the Intel® Falcon™ 8+ UAV, it on the Intel® Cockpit Con- should again be accessible. troller (CTR) until the Error Message Screen is shown.
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No internal SD card to proceed. will be shown. The Intel® Falcon™ 8+ UAV can fly without any active logging device. It is the Note responsibility of the user to make sure that all flights can be properly logged if it is a legal requirement in the country where the system is used.
INTEL® FALCON™ 8+ UAS 3. OPERATING THE SYSTEM In this chapter, you will find a description how to operate the Intel® Falcon™ 8+ UAS. 3.1. PREPARING THE INTEL® FALCON™ 8+ UAV The following section shows and describes how to prepare the Intel® Falcon™ 8+ UAV for flight.
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2 seconds until you hear a short beep. After approximately 3 seconds the LEDs on both sides of the Intel® Falcon™ 8+ UAV will be lit and you will hear the internal fan running. The UAV is initialized when the...
The Intel® Powerpack battery provides power to the CTR as well as the touchscreen tablet (the battery is the same for the Intel® Falcon™ 8+; see “THE INTEL® POWERPACK BATTERIES” on page 71) 3.
3.3. THE TOUCHSCREEN TABLET The Intel® based Windows® touchscreen tablet is directly mounted on the remote control unit of the Intel® Cockpit Controller (CTR) and cannot be removed. It serves as video monitor, displays general flight information and telemetry data, and allows the user to activate automated functions.
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AscTec Navigator project). Learn more about the AscTec Navigator at http://intel.com/FalconManual. In the near future AscTec Navigator will be replaced by the advanced flight planning software Intel Mission Control. For up to date information, please check: http://www.intel.com/IntelMissionControl...
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USB stick, which is inserted into the CTR. A waypoint can later be recalled, and the Intel® Falcon™ 8+ UAV will fly to this position and take an image with the stored heading and pitch angle. Camera settings such as shooting mode, or zoom, cannot be stored, and must be set manually before flight.
A good GPS signal needs to be available in the complete area in which the UAV will fly in (> 75% = 4 bars). • The space in which the Intel® Falcon™ 8+ UAV will be flying, must be free of obstacles. •...
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APPROACH WAYPOINTS OF THE MATRIX IN A STRAIGHT LINE, ASCENDING (OR DESCENDING) CONTINUOUSLY BY ITSELF IF NECESSARY! 3. Intel® Falcon™ 8+ UAV starts to fly the mission. 4. Completed waypoints will be marked green on the preview of the touchscreen tablet.
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USER MANUAL INTEL® FALCON™ 8+ UAS A green waypoint indicates that the Intel® Falcon™ 8+ UAV successfully passed the waypoint, sent a trigger command to the camera, and a tag Note was created in the log. It does not necessarily mean that the camera successfully triggered, and stored the image.
3.4.1. Regional Setting If the Intel® Falcon™ 8+ UAV is switched on in a different region than last time, it will automatically check and if necessary configure all radio parameters to comply with the new region. This is necessary because different regions (e.g. FCC or CE compliant) may have different limits regarding the transmission power.
Status Display. 3.4.2. Magnetic Field Warning In flight, the Intel® Falcon™ 8+ UAV uses algorithms to detect possible disturbances of the compass sensors. If there are discrepancies between the magnetometer output and the expected orientation, the UAV's heading is estimated using the other available IMU (Inertial Measurement Unit) sensors.
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(while not connected) and latitude and longi- tude of last known position will be displayed. Situations with varying GPS reception • If no GPS reception is available, when a data link connection is lost, the Intel® Falcon™ 8+ UAV will use Direct Landing. •...
USER MANUAL INTEL® FALCON™ 8+ UAS 3.6. FLIGHT MODES The Intel® Falcon™ 8+ UAV can be operated in three different flight modes: • GPS-Mode • Height-Mode • Manual-Mode Flying in GPS-Mode is easiest as it provides the highest level of automation.
CONTROL THE POSITION MANUALLY ON THE CTR. Figure 3.14: GPS accuracy The GPS module of the Intel® Falcon™ 8+ UAV supports GPS and GLONASS. Under ideal conditions, the horizontal accuracy can reach around +/- 2 m. The short-term accuracy is usually higher, because of the data fusion with other available sensor outputs from the IMU.
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The canopy of the Intel® Falcon™ 8+ UAV is made from a material which does not influence the satellite signals, but anything on the top of the Intel® Falcon™ 8+ UAV can potentially disturb the signal. Never cover the GPS receiver module nor the antenna area to ensure best possible GPS reception.
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GPS-Mode. Compass Error Estimation In addition to the compass sensors of the Intel® Falcon™ 8+ UAS, the UAV is equipped with a compass error estimation algorithm. The compass error estimation uses, among others, GPS-data to estimate the heading of the UAV.
Always keep a safe distance from people when starting! • While the Intel® Falcon™ 8+ UAV is on the ground with running motors, always keep the left control stick, which controls the height, in the fully downward position to avoid any unintentional take-off.
4. Keep the right control stick centered (no pitch and roll) and push the left control stick completely up (= ascend) to launch the drone. 5. Keep ascending until a safe height is reached. Be aware that the Intel® Falcon™ 8+ UAV may drift a little and correction might be required.
In Manual-Mode the pilot must control all axes. There is no automation regulating, nor preventing pilot errors. Normally this mode should not be used. To launch the Intel® Falcon™ 8+ UAV in Manual-Mode: 1. Push the GPS and HGT buttons on the CTR simultaneously.
BY DESCENDING AND SIMULTANEOUSLY FLYING SIDEWAYS OR BACKWARDS. 3.9.1. Controlling the Intel® Falcon™ 8+ UAV from the CTR The standard control mode is called Mode 2. In this mode, the left control stick controls thrust and yaw. The right control stick controls pitch and roll.
Be aware of the size of the area in which you plan to fly. Always ensure the Intel® Falcon™ 8+ UAV has enough battery capacity to fly back to the home position – even if the wind unexpectedly increases.
Analyze each mission regarding (but not limited to) the above-mentioned factors. If you find that the Intel® Falcon™ 8+ UAV does not react to control inputs as expected, for example, inaccurate position control due to bad GPS reception), immediately activate Height-Mode.
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Try to shorten the distance to the UAV by walking towards it. Simultaneous loss of GPS The Intel® Falcon™ 8+ UAV will activate the Link Loss reception, and data link con- Procedure because of the lost data link connection. nection, between UAV and...
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Table 3.5: Operational guidelines in case of emergency (continued) EVENT POSSIBLE ACTION In GPS-Mode the Intel® Falcon™ 8+ UAV can fly in wind speeds up to 12 m/s. If GPS-Mode is active and there are gusts exceeding 12 m/s you must: 1.
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Before you take off you can assure the UAV will stay in the allocated space. You can limit the maximum distance and height of the airspace the Intel Falcon 8+ UAV is flying in by setting specific values which will not be exceeded by the UAV. The center of this bounding box is set to the position of the UAV where is activated.
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Try to activate the function from RETURN TO HOME the CTR to bring the Intel Falcon 8+ UAV back to where it took off by pushing the dedicated button on the CTR (see “Intel® Cockpit Controller (CTR) Over- view” on page 24).
5. Right before touch-down – at 0.2 - 0.3 m – move the left control stick down gradually until the UAV lands on the ground. While the Intel® Falcon™ 8+ UAV is on the ground with running motors, always keep the left control stick in the fully downward position to avoid any unintentional take-off.
5. Right before touch-down – at a height of 0.2 - 0.3 m – move the left control stick down gradually until the UAV lands on the ground. While the Intel® Falcon™ 8+ UAV is on the ground with running motors, always keep the left control stick in the fully downward position to avoid any unintentional take-off.
Let go of the button. 3.12. WARNINGS The Intel® Falcon™ 8+ UAS displays all warnings which might occur, in the bottom line of the Status Display and in the notification area at the top of the touchscreen tablet. When there is no warning to display, the bottom line of the Status Display shows On the tablet is shown in the notification area.
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Error Message Screen page 166 CHECK STATUS of the Status Display. DISPLAY! The following messages are only shown if an Intel® Imaging Payload is mounted (see “Intel® Imaging Payload” on page 54). Status Display: OBSTACLE The Intel RealSense modules cannot be AVOID.
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Table 3.6: Possible Warnings (continued) SHOWN TEXT REASON SIGNALS / NOTES The following message is only shown if an Intel® High Resolution Imaging Payload is mounted (see “Intel® High Resolution Imaging Payload” on page 48). Possible workaround: • Wait several minutes. It...
THE UAV MUST BE LANDED IMMEDIATELY AFTER THESE WARNINGS. Battery warnings of the UAV The Intel Falcon 8+ takes many data points into account to calculate the remaining flight time. These include, among others, the current average power consumption, remaining charge of the battery and the potential of one battery being depleted sooner than the other.
While starting the Intel® Falcon™ 8+ UAV, a magnetic field warning may occur. Usually disturbances on the ground come from underground lines and can quickly be resolved by switching off the Intel® Falcon™ 8+ UAV, moving it to a different spot and starting from the new location.
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UAV in the attempt to hold the exact position. To resolve this warning: 1. Switch OFF the Intel® Falcon™ 8+ UAV, the touchscreen tablet and the CTR. 2. Move the UAV to a different spot and switch the complete system ON again.
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USER MANUAL INTEL® FALCON™ 8+ UAS In flight, the Intel® Falcon™ 8+ UAV uses algorithms to detect possible disturbances of the compass sensors. If there are discrepancies between the magnetometer output and the expected orientation, the UAV's heading is estimated using the other available IMU sensors.
SIGNALS EXPLANATION Acoustic: “Link weak!” Tactile: Vibration on CTR The Intel® Falcon™ 8+ UAV has two fully independent Visual on the Status Display: data link connections. In case one link is disturbed, the message is shown. Nevertheless, the LINK WEAK system can still be fully controlled via the second independent link, on a different channel in the 2.4...
Above these limits the UAV will not be able to hold its position. • Intel® Falcon™ 8+ UAV operating temperature: -5 °C and 45 °C (23 °F to 113 °F). • Intel® Cockpit Controller operating temperature: -5 °C and 45 °C (23 °F to 113 °F).
In this chapter, you will find a description of all possible messages and operations using the Status Display. 4.1. STATUS DISPLAY OVERVIEW The Status Display of the Intel® Cockpit Controller (CTR) shows all relevant information for flying. Figure 4.1: Status Display...
Displays the UAV orientation regarding its starting position. The displayed V-shape of the UAV will turn respectively when the heading of the Intel® Falcon™ 8+ UAV is changed. This can be of help when the orientation of the UAV is difficult to see in low contrast situations such as when flying in front of dark trees.
5. SPECIAL FUNCTIONS This chapter offers a description of several functions to perform semi-automatic flights directly from the Intel® Cockpit Controller (CTR). Most of these functions can only be executed in GPS-Mode and require a good GPS reception. 5.1. CIRCLE OF INTEREST (COI) This function is an optional part of the Inspection Package (see Chapter 2.8 Software...
The speed of the Intel® Falcon™ 8+ UAV is set automatically to always have 2 seconds in between images. Any photo editing software with panorama stitching functionality, or specialized panorama software, may be used to do the image post processing.
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There are two options available, cylindrical and spherical panorama. Figure 5.2: Cylindrical Panorama To create images for a cylindrical panorama, the Intel® Falcon™ 8+ UAV will keep its current position and do one 360° turn around the yaw axis, with one fixed tilt angle of the camera.
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ENT opens the next Cylindric screen. By default, the Intel® Falcon™ 8+ UAV will take an image every 30° while turning around the yaw axis. Meaning that 360°/30° = 12 images will be created. To adjust the rota- tion angle, use the arrow LEFT button to activate and confirm by pushing ENT.
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INTEL® FALCON™ 8+ UAS Figure 5.3: Spherical Panorama To create images for a spherical panorama, the Intel® Falcon™ 8+ UAV will keep its current position, and do multiple 360° turns around the yaw axis. The camera tilt angle is set to point downwards during the first turn. With every subsequent turn, the camera will be tilted upwards a bit further, until it will point fully upwards during the last turn.
CTR without any prior planning on a computer. To do so, the Intel® Falcon™ 8+ UAV is placed in one corner of the area to be mapped, and the key parameters are entered: attached camera / lens combination, desired ground sample distance, image overlaps, length of the lines and number of lines.
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More complex flights should be planned and performed with the AscTec Navigator Software. In the near future AscTec Navigator Software will be replaced by the advanced flight planning software Intel Mission Control. For up to date information, please check: http://www.intel.com/IntelMissionControl. Figure 5.4: Quick Surveying Assistant Pushing ENT in the Main Screen opens the screen to the left.
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INTEL® FALCON™ 8+ UAS Figure 5.4: Quick Surveying Assistant (Continued) Select camera/lens combination attached Select Cam: to the Intel® Falcon™ 8+ UAV. The most commonly used cameras are available as a preset. shows the angle of the Field Of View. FOV: shows the resolution of the single picture in pixels.
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:During the flight a bar shows the progress. Flying... At the end of the matrix the Intel® Falcon™ 8+ will stop automatically. Push ESC to exit the screen and go back to the main menu.
(see “AscTec Navigator Software Projects” on page 111). At each waypoint an image is triggered, and the current GPS position is stored in the Intel® Falcon™ 8+ UAV log. Images and GPS information can later be used in photogrammetry software to create orthomosaics, digital surface models or 3D models.
This chapter provides you with answers for questions which might appear during your work with the Intel® Falcon™ 8+ UAS. In the first section, we inform you how to keep your Intel® Falcon™ 8+ UAS up to date and give instructions to preserve the functionality.
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Outbound license file (OBL). Please read the license file before installing the firmware/software. By installing the firmware/software, you agree to the included OBL. The firmware of the Intel® Falcon™ 8+ UAV consists of two different components: • NAV: Navigational Processor = flight controller module of the AscTec Trinity Control Unit.
Controller, try reformatting the USB stick with the aforementioned parameters. 6.1.1.1. Updating the Intel® Falcon™ 8+ UAV The Intel® Falcon™ 8+ UAV is updated by a file called TRINITY.ATF. This file must be copied onto the USB stick before you start.
The firmware update of the Cockpit Control application can only be done with Note the USB ports 2 to 4 on the backside of the CTR (“Intel® Cockpit Controller (CTR) Overview” on page 24). Table 6.3: Firmware Update for the Cockpit Control Application...
“UAS AND SAFETY CHECK” on page 11). • We recommend an annual check from the manufacturer, during which the system is fully tested. For details please contact your reseller or Intel support. Cleaning If necessary, you should clean the UAV after the mission, and before storing.
Follow the Pre-flight Check (“PRE-FLIGHT CHECK” on page 13) thoroughly to prepare the Intel Falcon 8+ UAS for take-off. Once airborne, perform flight maneuvers in all directions and observe if the UAV performs as expected. If it does, land the system and follow the Post-flight Check (“POST-FLIGHT CHECK”...
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USER MANUAL INTEL® FALCON™ 8+ UAS Figure 6.3: Removing a motor rail from an Intel Falcon F8+ UAV 1. Remove the screw M2x18 mm TX, FK of the motor rail at the front end of the UAV. Use a T6 torx screw driver.
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INTEL® FALCON™ 8+ UAS Figure 6.3: (continued) Removing a motor rail from an Intel Falcon F8+ UAV 6. Push the motor rail straight out of the connecting plug of the rear cross tube. Before mounting a motor rail, perform the following checks: Figure 6.4:...
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CAUSE LACK OF CONTROL AND CRASHING, AS WELL AS POSSIBLE INJURY TO PERSONS OR PROPERTY. Figure 6.5: Mounting a motor rail onto an Intel Falcon F8+ UAV 1. Align the motor rail to the cross tubes. Make sure there is no horizontal tilt of the motor rail.
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USER MANUAL INTEL® FALCON™ 8+ UAS Figure 6.5: (continued) Mounting a motor rail onto an Intel Falcon F8+ UAV 4. Rotate the motor rail by a small amount until it fits. NOTICE: Possible breakage of the connector. Do not rotate the motor rail too much.
Follow the Pre-flight Check (“PRE-FLIGHT CHECK” on page 13) thoroughly to prepare the Intel Falcon 8+ UAS for take-off. Once airborne, perform flight maneuvers in all directions and observe if the UAV performs as expected. If it does, land the system and follow the Post-flight Check (“POST-FLIGHT CHECK”...
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The payload calibration will resolve this error message. If the payload shall again be used on the Intel Falcon 8+ UAV, it is sufficient to mount the payload adapter again and perform a payload calibration. The update file "f8p_license.asc"...
The UAV and the CTR are pre-configured ex works. Nevertheless, when the Intel® Falcon™ 8+ UAV and the CTR are powered up for the first time, the Status Display will show the Start Screen and it is necessary to set up the connection between UAV and CTR.
Take a new CTR and connect it with the problematic Intel® Falcon™ 8+ UAV and repeat the test. If the issue persists it is very likely the Intel® Falcon™ 8+ UAV, if the issue disappears it very likely is coming from the CTR.
When the issue has been isolated, please contact the support team, describe your finding precisely and be prepared to provide log files of the flight tests. If you do not have a second CTR / Intel® Falcon™ 8+ UAV available, contact Intel support.
FAT32, allocation unit size: 32 Display. Push the related arrow accessed. kilobytes). After reinserting the SD LEFT button on the CTR until card into the Intel® Falcon™ 8+ UAV, it the Error Message Screen is should be accessible. shown. No user SD card will be shown.
The Intel® Falcon™ 8+ UAV can fly without any active logging device. It is the Note responsibility of the user to make sure that all flights can be properly logged if it is a legal requirement in the country where the system is used.
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• Log files from the User SD card, see “INTEL® FALCON™ 8+ UAV FLIGHT LOGS” on page 91. Please indicate as precisely as possible the log file number in which the incident occurred, or note the exact local time at which the incident occurred.
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** The pilot is responsible for knowing and complying with all laws and regulations applicable to the airspace in which the Intel® Falcon™ 8+ System is operated. Juris- dictions have different safety rules related to authorization for flying unmanned air- craft;...
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USER MANUAL INTEL® FALCON™ 8+ UAS Table 7.1: Technical Data (Continued) *** The maximum temperature for the Intel® Powerpack depends on the system and the configuration it is used with: • The Intel® Falcon™ 8+ combined with the Intel® Cockpit Controller - operating temperature is 45°C (113°F)
2.9 The Touchscreen Tablet .....................28 2.10 Independent Camera Control (ICC) ................28 2.11 2nd Operator Monitor Package ..................30 2.12 Camera Control via the Intel® Cockpit Controller (CTR) ........32 2.13 Installing the Camera Mount ..................34 2.14 Removing the Camera Mount ..................35 2.15 Sony Alpha 7R and SD Card Slot .................39 2.16 Sony Alpha 7R CTR Control Layout ................40...
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INTEL® FALCON™ 8+ UAS 2.36 Transport Cases & Backpack ..................81 2.37 Packing Instructions for the Intel® Falcon™ 8+ UAS Cases ........82 2.38 Packing Instructions for the cardboard box for the UAV system case ..85 2.39 Show Activated Perpetual License ................90 2.40 Show activated annual license ..................90...
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USER MANUAL INTEL® FALCON™ 8+ UAS 6.3 Removing a motor rail from an Intel Falcon F8+ UAV ........203 6.4 Checks do be done before mounting a motor rail ..........204 6.5 Mounting a motor rail onto an Intel Falcon F8+ UAV .........205 6.6 The parts of the payload adapter ................208...
5.1 Image Positions of Spherical Panorama Set To 19 mm Focal Length ..188 5.2 Image Positions Of Spherical Panorama Set To 30 mm Focal Length ..188 6.1 Updating the Intel® Falcon™ 8+ UAV ................195 6.2 Firmware Update for the CTR ..................196 6.3 Firmware Update for the Cockpit Control Application ........197...
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