Vector coding of symbolic information in the 3D sphere.

An application that uses a vector polyline inside a large honeycomb sphere-keyboard for recording data storage.

The standard keyboard allows the computer operator to “blindly” type text. The proposed application works on the same principle as the standard keyboard template and operator vector fingers.

The application creates a 3D sphere composed of honeycombs on a surface. Each of the cells is assigned an alphabetic, numeric and symbolic value by analogy with a computer keyboard. In order to write text, the program creates a continuous polyline of vectors inside the sphere, while the direction of each subsequent vector in this polyline will point to the cell with the value assigned to it (similar to how the operator interacts with the keyboard).

After the application writes and saves the necessary data in 3D coordinates, we will get a volumetric vector polyline. To decrypt the data, the program inserts the previously saved volumetric vector polyline in the middle of the honeycomb sphere (analogue of the keyboard). The program then converts each cell-pointing polyline vector into an alphabetic, numeric, or symbolic specific sequence of previously recorded data.

The program for saving data uses a polyline composed of vectors and a standard 3D sphere-keyboard template.

An application that uses a vector polyline inside a large honeycomb sphere-keyboard for recording data storage.

The standard keyboard allows the computer operator to “blindly” type text. The proposed application works on the same principle as the standard keyboard template and operator vector fingers.

The application creates a 3D sphere composed of honeycombs on a surface. Each of the cells is assigned an alphabetic, numeric and symbolic value by analogy with a computer keyboard. In order to write text, the program creates a continuous polyline of vectors inside the sphere, while the direction of each subsequent vector in this polyline will point to the cell with the value assigned to it (similar to how the operator interacts with the keyboard).

After the application writes and saves the necessary data in 3D coordinates, we will get a volumetric vector polyline. To decrypt the data, the program inserts the previously saved volumetric vector polyline in the middle of the honeycomb sphere (analogue of the keyboard). The program then converts each cell-pointing polyline vector into an alphabetic, numeric, or symbolic specific sequence of previously recorded data.

The program for saving data uses a polyline composed of vectors and a standard 3D sphere-keyboard template.

The program for saving data uses a polyline composed of vectors and a standard 3D sphere-keyboard template.

The application creates a 3D sphere composed of honeycombs on a surface. Each of the cells is assigned an alphabetic, numeric and symbolic value by analogy with a computer keyboard. In order to write text, the program creates a continuous polyline of vectors inside the sphere, while the direction of each subsequent vector in this polyline will point to the cell with the value assigned to it (similar to how the operator interacts with the keyboard).

After the application writes and saves the necessary data in 3D coordinates, we will get a volumetric vector polyline. To decrypt the data, the program inserts the previously saved volumetric vector polyline in the middle of the honeycomb sphere (analogue of the keyboard). The program then converts each cell-pointing polyline vector into an alphabetic, numeric, or symbolic specific sequence of previously recorded data.

The program for saving data uses a polyline composed of vectors and a standard 3D sphere-keyboard template.

An application that uses a vector polyline inside a large honeycomb sphere-keyboard for recording data storage.

An application that uses a vector polyline inside a large honeycomb sphere-keyboard for recording data storage.