thebighoogl.blogg.se - Electrical paper locad cinematography

ELECTRICAL PAPER LOCAD CINEMATOGRAPHY SOFTWARE
ELECTRICAL PAPER LOCAD CINEMATOGRAPHY CODE
ELECTRICAL PAPER LOCAD CINEMATOGRAPHY FREE

This camera uses an onboard microSD card to capture the photos and videos eliminating the use of an external module. The camera that was chosen for this task was the RunCam Hybrid Micro FPV camera. After these components were chosen, a camera must be chosen to deliver the 4k photos and videos. Each of these components allows the quadcopter to fly safely and effectively. In order for the quadcopter to accurately determine its pitch, yaw, and roll, a GY85 9 degree of freedom IMU was implemented. These components ensure that the motors are provided with plenty of power while being able to fly for an extended period of time. Because these high power motors were chosen, 30A BLHeli-S Rev16 V3 ESCs and a 3S lip battery were also chosen to power the motors. This combination allows the quadcopter to carry an additional payload of a camera or other equipment without suffering from a lack of power. Emax MT2213-935KV motors were chosen as each motor can produce a maximum of 935kV, generating an excess of lift when paired with 10" propellers.

ELECTRICAL PAPER LOCAD CINEMATOGRAPHY SOFTWARE

Because this software was chosen to fly the quadcopter, typical components were chosen to simplify the prototyping process.

ELECTRICAL PAPER LOCAD CINEMATOGRAPHY CODE

This Arduino is paired with the MultiWii drone software which allows the user to input the components chosen into the code and make adjustments. Because of this, an Arduino Uno R3 was chosen as it is open source based and minimalistic.

Allows for GPS location lock when paired with a LiDAR sensor for autonomous hoveringīecause this quadcopter is open source, the components used to build the quadcopter must be accessible to everyone.

Allows for the "Follow Me" function as well as autonomous hover.

Attach a LiDAR sensor to the quadcopter.

The quadcopter will have an attachment on the underside to attach additional cameras or equipment.

Create mounting for an additional payload.

Create a demo of the quadcopter in flight and sample photos and videos.

Verify each components works properly on its own as well as with each other.

Create a cover to house the essential components inside the center of the quadcopter.

Utilize an Arduino Uno R3 to control the operations of the quadcopter.

Control the quadcopter using a handheld remote control.

Utilize PETG filament to 3D print the frame.

Use open-source plugins in FreeCAD to perform FEA analysis.

Use open-source plugins in FreeCAD to create a 3D assembly of the frame.

Use FreeCAD to create 3D models of the frame.

Create a frame platform using open-source software.

It allows the user to add additional payloads or alter the dimensions of the frame to make a larger or smaller quadcopter to fit each scenario. This quadcopter allows the user to create a customized platform to suit their cinematography needs. This eliminates the expensive costs of prototyping and allows the user to customize the quadcopter to add additional payloads.

ELECTRICAL PAPER LOCAD CINEMATOGRAPHY FREE

This platform allows the user to manipulate or change features on the frame while using software that is completely open source and free to the public. Using common quadcopter components and open-source options, this solution allows the common user to build off this existing platform to create the quadcopter to fit their needs. The current market options for a quadcopter that supports a 4K resolution camera are limited and expensive. The quadcopter also contains features to make it weather resistant in order to increase its longevity. This 3D printed frame and open-source components makes the cost of this project minimal while maintaining a reliable and customizable platform. This platform is based on previous open-source hardware to control the software and electronics of the quadcopter, and the frame is designed using the open-source software FreeCAD to make a 3D printed frame. The goal of this project is to create an open-source quadcopter platform that is able to capture 4K resolution pictures and videos.