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DJI Mavic Pro Quadcopter - Open Box
MFG# CP.PT.000500O
Samy's Part # S-051505
Limited to stock-on-hand. Open box with the same warranty as a new one.
Availability: In Stock
$879.00
Eligible for FREE 1-3 Day Shipping
Overview
EXC / This is an open box model. Overall great condition.
*Item pictured for illustrative purposes only, actual item not pictured.
The DJI Mavic Pro Quadcopter is a small yet powerful drone that turns the sky into your creative canvas easily and without worry, helping you make every moment an aerial moment. Its compact size hides a high degree of complexity that makes it one of DJI’s most sophisticated flying cameras ever. 24 high-performance computing cores, an all-new transmission system with a 4.3mi (7km*) range, 5 vision sensors, and a 4K camera stabilized by a 3-axis mechanical gimbal, are at your command with just a push of your thumb or a tap of your finger. Rather than use Wi-Fi transmission, the Mavic uses DJI’s newly developed OcuSync transmission system. Part of the Lightbridge family, OcuSync performs far better than Wi-Fi transmission at all transmission speeds. OcuSync also uses more effective digital compression and channel transmission technologies, allowing it to transmit HD video reliably even in environments with strong radio interference. Compared to traditional analog transmission, OcuSync can transmit video at 720p and 1080p – equivalent to a 4-10 times better quality, without a color cast, static interference, flickering or other problems associated with analog transmission. Even when using the same amount of radio transmission power, OcuSync transmits further than analog at 4.1mi (7km). OcuSync goes even further than optimizing the communication mechanism and parameters of aerial imaging. There are several video transmission systems on the market claiming to offer video transmission with zero latency. However, it should be noted that the physical layer of those transmission systems is too simple to adapt to changes in the environment. When affected by signal interference, the image quality of the video being transmitted will fall sharply. This means these systems are not suitable for far field transmissions and transmissions in interference-heavy environments. Also, because these video transmission systems are not integrated into the whole system, latency will immediately start to rise up from 0 when working with devices including cameras and displays. OcuSync is able to strike a perfect balance between latency and receptivity, reducing latency to 5ms for remote controller transmission commands, 10ms for video data and 130ms for videos. More than low enough to ensure that Mavic is able to fly reliably despite interference. OcuSync’s integration with video processing, coding, and signal transmission systems also make it more cost effective. Before taking off, OcuSync will automatically scan the environment and choose the frequency band with the lowest interference, ensuring more stable video transmission. During a flight, it sends key flight parameters back for viewing in the DJI GO app and supports a maximum download speed of 40Mb/s for photos and videos. Before taking off, OcuSync will automatically scan the environment and choose the frequency band with the lowest interference, ensuring more stable video transmission. During a flight, it sends key flight parameters back for viewing in the DJI GO app and supports a maximum download speed of 40Mb/s for photos and videos.
Ultrasonic waves and ToF sensors are often used to measure distance from an obstacle, but both methods calculate distance based on signal reflection and are therefore reliant on the shape of the obstacle. This means distances from common obstacles such as rocks and branches cannot be sensed. Flight Autonomy gives the Mavic long range, high precision obstacle sensing, enabling it to scan its environment in 3D before taking off. Flight Autonomy dramatically increases accuracy and help Mavic locate obstacles around it. Detecting obstacles requires getting information about the obstacle to the Mavic. Ultrasonic and TOF sensors measure distance by detecting the first reflected wave. In other words, they can only measure the distance from a single point, instead of getting a 3D depth image of an obstacle. Another method of creating a depth image is structured light projection. In this, a structured light sensor projects infrared in a specific shape onto an obstacle in front of it. The infrared reflects back and the sensor then calculates the strength of the reflected signal so that it can create a 3D depth image of the obstacle. However, due to the limited strength of infrared and interference from visible light, the maximum sensing distance for a structured light sensor is only 3 to 5 meters. It is also ineffective in bright light significantly reducing its reliability and effectiveness on a sunny day. FlightAutonomy is made up of 7 components including 5 cameras (forward and downward dual vision sensors and the main camera), dual-band satellite positioning (GPS and GLONASS), 2 ultrasonic rangefinders, redundant sensors, and a group of 24 powerful, specialized computing cores. Cameras on the left and right side in the front of the Mavic are fixed in place using an aluminum bracket ensure the optimum alignment of the vision sensor lenses. As the Mavic flies, dual forward and downward vision sensors measure the distance between itself and obstacles by taking photos from all four cameras and using the information to create a 3D map that tells it exactly where obstacles are. The dual forward and downward vision sensors require visible light to function, and can see as far as 49ft (15m) in front in bright light.
Situations without satellite positioning can be divided into two kinds. First, satellite connectivity may be unavailable during indoor flying. Second, satellite connectivity is cut off during an outdoor flight, such as by flying under a balcony or flying from indoors to outdoors. The loss of satellite positioning makes these scenarios dangerous for new pilots or those who want to long distances*.If the drone wants to position using satellites, its flight controller needs to gain both the current location and flight speed of the aircraft. However, if the drone needs to position accurately without GPS, flight status still need to be collected. Many drones are equipped with what is known as an Optical Flow visual positioning system consisting of dual ultrasonic sensors and a single camera. The ultrasonic sensors provide altitude information by measuring the distance between the aircraft and the landing point, while the single camera is used to calculate positioning information by capturing images below the aircraft. As ultrasonic sensors are the only measure of height, the higher the aircraft flies the less precise the data from reflected sound waves become. Accurate height positioning is therefore limited to less than 3 meters. The single camera is unable to improve height positiong accuracy and limits areas that the drone can hover stably to those that have a clear texture. The Mavic overcomes these problems through the use of dual forward vision sensors. This setup allows the Mavic to see obstacles in 3-dimensions up to 15 meters in front, increasing positioning accuracy to 2-3 times that of an Optical Flow system. It also allows the speed of the aircraft to be calculated, enabling precise hovering at up to 10 meters without satellite positioning. Dual forward vision sensors allow it to calculate its current location and speed of flight by observing the scene in front, further increasing positioning accuracy. Thanks to the precise hovering technology, the Mavic is able to automatically land almost exactly where you took off. Every time you take off, the two downward facing vision sensors record a burst of video of the ground below and pair it with satellite coordinates. When you tell the Mavic to fly home, it will return to that coordinate, match the video, and land back at your feet.
When designing the Mavic, we wanted to reduce its size without sacrificing flight time. Since the Mavic has a brand new 4.1mi (7km, unobstructed, free of interference, when FCC compliant) FHD video transmission system, we knew customers would want more flight time and speed to enjoy their flying. This is why the Mavic can fly for up to 27 minutes and reach speeds of 40mph (64kph).Because the Mavic is much smaller than the Phantom 4, it requires an even more efficient propulsion system. The efficiency of the Mavic’s propulsion system allows it to fly more than twice the 10 minutes that other folding or pocket sized drones on the market are capable of. Its propulsion system is also more stable than smaller drones that do not have the power to fly in strong wind. The flight time of a drone is heavily depending on its propulsion system and its overall power consumption. Since Mavic is smaller, the expectation is that it is less stable than a Phantom 4 when flying against wind, but the Mavic’s airframe and propulsion system have been optimized to allow it to rival the Phantom 4 in its flight performance. Electronic Image Stabilization (EIS) is a shake reduction technology based on image clipping. It is particularly popular among compact and small drones, since the can be much lighter without 3-axis gimbal.EIS works by clipping edges from a 4K image, and can theoretically create a smooth full HD 1080p video from an original 4K video. However, EIS is unable to completely eliminate shaking, and introduces ripples in both photos and videos.
Situations without satellite positioning can be divided into two kinds. First, satellite connectivity may be unavailable during indoor flying. Second, satellite connectivity is cut off during an outdoor flight, such as by flying under a balcony or flying from indoors to outdoors. The loss of satellite positioning makes these scenarios dangerous for new pilots or those who want to long distances*.If the drone wants to position using satellites, its flight controller needs to gain both the current location and flight speed of the aircraft. However, if the drone needs to position accurately without GPS, flight status still need to be collected. Many drones are equipped with what is known as an Optical Flow visual positioning system consisting of dual ultrasonic sensors and a single camera. The ultrasonic sensors provide altitude information by measuring the distance between the aircraft and the landing point, while the single camera is used to calculate positioning information by capturing images below the aircraft. As ultrasonic sensors are the only measure of height, the higher the aircraft flies the less precise the data from reflected sound waves become. Accurate height positioning is therefore limited to less than 3 meters. The single camera is unable to improve height positiong accuracy and limits areas that the drone can hover stably to those that have a clear texture. The Mavic overcomes these problems through the use of dual forward vision sensors. This setup allows the Mavic to see obstacles in 3-dimensions up to 15 meters in front, increasing positioning accuracy to 2-3 times that of an Optical Flow system. It also allows the speed of the aircraft to be calculated, enabling precise hovering at up to 10 meters without satellite positioning. Dual forward vision sensors allow it to calculate its current location and speed of flight by observing the scene in front, further increasing positioning accuracy.
Features:
*Item pictured for illustrative purposes only, actual item not pictured.
The DJI Mavic Pro Quadcopter is a small yet powerful drone that turns the sky into your creative canvas easily and without worry, helping you make every moment an aerial moment. Its compact size hides a high degree of complexity that makes it one of DJI’s most sophisticated flying cameras ever. 24 high-performance computing cores, an all-new transmission system with a 4.3mi (7km*) range, 5 vision sensors, and a 4K camera stabilized by a 3-axis mechanical gimbal, are at your command with just a push of your thumb or a tap of your finger. Rather than use Wi-Fi transmission, the Mavic uses DJI’s newly developed OcuSync transmission system. Part of the Lightbridge family, OcuSync performs far better than Wi-Fi transmission at all transmission speeds. OcuSync also uses more effective digital compression and channel transmission technologies, allowing it to transmit HD video reliably even in environments with strong radio interference. Compared to traditional analog transmission, OcuSync can transmit video at 720p and 1080p – equivalent to a 4-10 times better quality, without a color cast, static interference, flickering or other problems associated with analog transmission. Even when using the same amount of radio transmission power, OcuSync transmits further than analog at 4.1mi (7km). OcuSync goes even further than optimizing the communication mechanism and parameters of aerial imaging. There are several video transmission systems on the market claiming to offer video transmission with zero latency. However, it should be noted that the physical layer of those transmission systems is too simple to adapt to changes in the environment. When affected by signal interference, the image quality of the video being transmitted will fall sharply. This means these systems are not suitable for far field transmissions and transmissions in interference-heavy environments. Also, because these video transmission systems are not integrated into the whole system, latency will immediately start to rise up from 0 when working with devices including cameras and displays. OcuSync is able to strike a perfect balance between latency and receptivity, reducing latency to 5ms for remote controller transmission commands, 10ms for video data and 130ms for videos. More than low enough to ensure that Mavic is able to fly reliably despite interference. OcuSync’s integration with video processing, coding, and signal transmission systems also make it more cost effective. Before taking off, OcuSync will automatically scan the environment and choose the frequency band with the lowest interference, ensuring more stable video transmission. During a flight, it sends key flight parameters back for viewing in the DJI GO app and supports a maximum download speed of 40Mb/s for photos and videos. Before taking off, OcuSync will automatically scan the environment and choose the frequency band with the lowest interference, ensuring more stable video transmission. During a flight, it sends key flight parameters back for viewing in the DJI GO app and supports a maximum download speed of 40Mb/s for photos and videos.
Ultrasonic waves and ToF sensors are often used to measure distance from an obstacle, but both methods calculate distance based on signal reflection and are therefore reliant on the shape of the obstacle. This means distances from common obstacles such as rocks and branches cannot be sensed. Flight Autonomy gives the Mavic long range, high precision obstacle sensing, enabling it to scan its environment in 3D before taking off. Flight Autonomy dramatically increases accuracy and help Mavic locate obstacles around it. Detecting obstacles requires getting information about the obstacle to the Mavic. Ultrasonic and TOF sensors measure distance by detecting the first reflected wave. In other words, they can only measure the distance from a single point, instead of getting a 3D depth image of an obstacle. Another method of creating a depth image is structured light projection. In this, a structured light sensor projects infrared in a specific shape onto an obstacle in front of it. The infrared reflects back and the sensor then calculates the strength of the reflected signal so that it can create a 3D depth image of the obstacle. However, due to the limited strength of infrared and interference from visible light, the maximum sensing distance for a structured light sensor is only 3 to 5 meters. It is also ineffective in bright light significantly reducing its reliability and effectiveness on a sunny day. FlightAutonomy is made up of 7 components including 5 cameras (forward and downward dual vision sensors and the main camera), dual-band satellite positioning (GPS and GLONASS), 2 ultrasonic rangefinders, redundant sensors, and a group of 24 powerful, specialized computing cores. Cameras on the left and right side in the front of the Mavic are fixed in place using an aluminum bracket ensure the optimum alignment of the vision sensor lenses. As the Mavic flies, dual forward and downward vision sensors measure the distance between itself and obstacles by taking photos from all four cameras and using the information to create a 3D map that tells it exactly where obstacles are. The dual forward and downward vision sensors require visible light to function, and can see as far as 49ft (15m) in front in bright light.
Situations without satellite positioning can be divided into two kinds. First, satellite connectivity may be unavailable during indoor flying. Second, satellite connectivity is cut off during an outdoor flight, such as by flying under a balcony or flying from indoors to outdoors. The loss of satellite positioning makes these scenarios dangerous for new pilots or those who want to long distances*.If the drone wants to position using satellites, its flight controller needs to gain both the current location and flight speed of the aircraft. However, if the drone needs to position accurately without GPS, flight status still need to be collected. Many drones are equipped with what is known as an Optical Flow visual positioning system consisting of dual ultrasonic sensors and a single camera. The ultrasonic sensors provide altitude information by measuring the distance between the aircraft and the landing point, while the single camera is used to calculate positioning information by capturing images below the aircraft. As ultrasonic sensors are the only measure of height, the higher the aircraft flies the less precise the data from reflected sound waves become. Accurate height positioning is therefore limited to less than 3 meters. The single camera is unable to improve height positiong accuracy and limits areas that the drone can hover stably to those that have a clear texture. The Mavic overcomes these problems through the use of dual forward vision sensors. This setup allows the Mavic to see obstacles in 3-dimensions up to 15 meters in front, increasing positioning accuracy to 2-3 times that of an Optical Flow system. It also allows the speed of the aircraft to be calculated, enabling precise hovering at up to 10 meters without satellite positioning. Dual forward vision sensors allow it to calculate its current location and speed of flight by observing the scene in front, further increasing positioning accuracy. Thanks to the precise hovering technology, the Mavic is able to automatically land almost exactly where you took off. Every time you take off, the two downward facing vision sensors record a burst of video of the ground below and pair it with satellite coordinates. When you tell the Mavic to fly home, it will return to that coordinate, match the video, and land back at your feet.
When designing the Mavic, we wanted to reduce its size without sacrificing flight time. Since the Mavic has a brand new 4.1mi (7km, unobstructed, free of interference, when FCC compliant) FHD video transmission system, we knew customers would want more flight time and speed to enjoy their flying. This is why the Mavic can fly for up to 27 minutes and reach speeds of 40mph (64kph).Because the Mavic is much smaller than the Phantom 4, it requires an even more efficient propulsion system. The efficiency of the Mavic’s propulsion system allows it to fly more than twice the 10 minutes that other folding or pocket sized drones on the market are capable of. Its propulsion system is also more stable than smaller drones that do not have the power to fly in strong wind. The flight time of a drone is heavily depending on its propulsion system and its overall power consumption. Since Mavic is smaller, the expectation is that it is less stable than a Phantom 4 when flying against wind, but the Mavic’s airframe and propulsion system have been optimized to allow it to rival the Phantom 4 in its flight performance. Electronic Image Stabilization (EIS) is a shake reduction technology based on image clipping. It is particularly popular among compact and small drones, since the can be much lighter without 3-axis gimbal.EIS works by clipping edges from a 4K image, and can theoretically create a smooth full HD 1080p video from an original 4K video. However, EIS is unable to completely eliminate shaking, and introduces ripples in both photos and videos.
Situations without satellite positioning can be divided into two kinds. First, satellite connectivity may be unavailable during indoor flying. Second, satellite connectivity is cut off during an outdoor flight, such as by flying under a balcony or flying from indoors to outdoors. The loss of satellite positioning makes these scenarios dangerous for new pilots or those who want to long distances*.If the drone wants to position using satellites, its flight controller needs to gain both the current location and flight speed of the aircraft. However, if the drone needs to position accurately without GPS, flight status still need to be collected. Many drones are equipped with what is known as an Optical Flow visual positioning system consisting of dual ultrasonic sensors and a single camera. The ultrasonic sensors provide altitude information by measuring the distance between the aircraft and the landing point, while the single camera is used to calculate positioning information by capturing images below the aircraft. As ultrasonic sensors are the only measure of height, the higher the aircraft flies the less precise the data from reflected sound waves become. Accurate height positioning is therefore limited to less than 3 meters. The single camera is unable to improve height positiong accuracy and limits areas that the drone can hover stably to those that have a clear texture. The Mavic overcomes these problems through the use of dual forward vision sensors. This setup allows the Mavic to see obstacles in 3-dimensions up to 15 meters in front, increasing positioning accuracy to 2-3 times that of an Optical Flow system. It also allows the speed of the aircraft to be calculated, enabling precise hovering at up to 10 meters without satellite positioning. Dual forward vision sensors allow it to calculate its current location and speed of flight by observing the scene in front, further increasing positioning accuracy.
Features:
- Fly For Miles: Inside the Mavic’s pocket-sized remote controller is DJI’s brand new OcuSync transmission technology, with a range of 4.3mi (7km) and Full HD 1080p video streaming.
- NO BUMPS AND SCRAPES: The Mavic uses SkyAutonomy technology to sense obstacles up to 49ft (15m) away. It can then bypass these obstacles or brake to hover, preventing accidents.
- PRECISION HOVER: Satellite positioning can only help a drone hover in an unobstructed outdoor area free of interference. Without satellites, the drone will not be able to position and become susceptible to drifting. However, with forward and downward vision sensors, the Mavic can hover precisely indoors or in places without GPS.
- STAY FLYING LONGER: The Mavic is only 1/6th the size of the Phantom 4 but this reduction in size doesn't mean a reduction in flight time. The Mavic actually flies much longer than you would expect from its compact size. It is capable of reaching an absolute max flight time of 27 minutes and a maximum distance of 8mi (13km) due to its powerful, high efficiency motors.
- 4K ULTRA HD VIDEO: Mavic supports 4K video at 30fps. No Electronic Image Stabilization is used, ensuring all footage is 4K. We have created a miniaturized, ultra-precise 3-axis gimbal for the Mavic, capable of stabilizing the camera even during high speed motion for smooth video and sharp photos.
- PHOTOS WITH ALTITUDE: Everyone loves a good photo. Whether you just want to take a snap or are building up your portfolio, the Mavic’s 12-megapixel camera with Adobe DNG RAW support is ready to shoot.
- SHOOT LIKE A PRO: You will not need a film crew when you fly the Mavic because all you need is ActiveTrack. Just tell it who to track and it handles the rest, making you shoot like a pro.
- WAVE FOR YOUR DRONIE: With the Mavic in the air pointing at you, a gesture is all it takes to snap a photo. Get selfies like you’ve never seen before with Mavic’s Gesture Mode.
- FINELY TUNED CONTROL: If you are lining up a photo, or even flying indoors, you don’t want to fly quite so fast. Flip on Tripod Mode and every move the Mavic makes becomes precise and slow.
- FLY BY PHONE: Maybe all you want to do is grab a quick dronie, set up tracking to shoot a friend, or even just head skywards for a quick flight. All you need is your phone.
- TAPFLY: TapFly means you can just tap where you want to go and the Mavic will fly smoothly in that direction so you can focus on controlling the gimbal and capturing photos and video. Flying really can be that easy.
- AT YOUR COMMAND: The Mavic acts on your every instruction instantly. Whether you want to shoot a slow, graceful flowing shot, or get your blood pumping with the 40mph (65kph) Sport Mode.
- SEE THE WORLD LIKE A BIRD: Fly with a turn of your head and see the world from the eyes of a bird when you wear the super high quality wireless DJI Goggles.
- SHOOT. EDIT. SHARE: You have shot the most incredible scene imaginable. Now you can edit it with just a few taps in the DJI GO Editor, and share it instantly for all the world to see.
- TWICE AS RELIABLE: On a drone, the most likely source of a problem is a sensor not working exactly as it should. This is why the Mavic has two of each key sensor. If one goes wrong, the other kicks in to take its place.
- LEVEL HEADED: Stay at the same level height above the ground automatically. Don’t worry about flying too low, the Mavic will keep you at just the right height over uneven terrain.
- SAFER BATTERIES: Before DJI Intelligent Flight Batteries, powerful drone batteries could be unreliable. But with their own integrated brains, DJI batteries are as easy and safe to use as a regular rechargeable.
- A GLANCE IS ALL YOU NEED: Through the DJI GO app you see everything the camera sees, as well as everything you need to know about your Mavic, from battery life to where it is, to where it is heading and much more.
Fly Responsibly:
The FAA requires operators of unmanned aircraft weighing more than 0.55 pounds (250 grams) on takeoff (including everything on board or attached), and operating outdoors, be registered at registermyuas.faa.gov/. If you are under age 13, you must have a parent or someone age 13 or older register for you. Additional state or local requirements may apply. Check your local jurisdiction.Specifications
Specifications
Drone Specs
Maximum Speed
Sport Mode: 40 mph / 65 km/h (no wind)
Maximum Altitude
16,404 ft. / 5000 m above sea level
Flight Time
Up to 27 minutes (no wind at a consistent 15.5 mph / 25 km/h)
GPS
GPS / GLONASS
Weight
Including Battery and Propellers: 1.62 lb / 734 g (excluding gimbal cover) 1.64 lb / 743 g (including gimbal cover)
Battery
Lithium-ion polymer (LiPo) 3830 mAh / 43.6 Wh
Gimbal Compatibility
3-axis (pitch, roll, yaw)
Handheld Transmitter Battery
Chemistry: Lithium-ion polymer (LiPo) Capacity: 2970 mAh
Frequency
2.4 to 2.483 GHz
Rate Modes
Low Medium High
Mavic Pro Quadcopter - Open Box
$879.00
