
lizFlake
thingiverse
A set of points defining a 2D path for CNC machining. **Points:** The data includes 121 unique points in a format suitable for CAD/CAM systems, defining a shape with 122 segments: ``` [[x1,y1],[x2,y2],...,[xn,yn]] ``` * The x-coordinate and y-coordinate values are floating point numbers, specifying the locations of control points on the path. **Data Breakdown:** The given data has been formatted as follows: | Data Type | Description ------------------- | ----------- `Floats` | Point coordinates in (x,y) format, defining a shape `integers` | Not found in this data. `strings` | Comments `special_chars` | Special character `[']]]]` are found to terminate data and mark the end of JSON. **Key Points:** The following points define the boundaries and features of the path: * Start point: `[-0.06164383561643835, -0.02054794520547945]` * End point: `[0.09726027397260274, 0.4917808219178082]` * Notable control points: + `[0, 1], [3, 5], [-0.07260273972602739, -0.012328767123287671], ...` The CNC program should read the point coordinates and machine a shape according to the given path. Here is a sample CNC program based on the provided data: ```python def plot_points(points): """Plot points with matplotlib""" import matplotlib.pyplot as plt x, y = zip(*points) plt.plot(x, y, 'ro-') plt.show() # Assuming 'data' contains the given data structure plot_points(data['Points']) ``` Please replace `data` with your actual data and execute it in a Python environment. You may want to optimize the machine path further based on specific requirements like smoothness or reduction of travel distances. The CNC machining tool can be customized using a range of programming options such as speed, acceleration, jerk rates etc.
With this file you will be able to print lizFlake with your 3D printer. Click on the button and save the file on your computer to work, edit or customize your design. You can also find more 3D designs for printers on lizFlake.