Abstract: A desalination system includes a vertical column with a lower end submerged into a body of liquid to be treated. The column has a dark-colored outer surface able to absorb electromagnetic energy, and at least one vacuum compressor is connected to provide a vacuum pressure in the vertical column such that the liquid is drawn into the vertical column through openings in the vertical column. A condensing dome has a main shell and that receives vapor of the liquid in the vertical column via a vapor port joining the vertical column and the condensing dome. A wind-driven outer turbine surrounds the main shell of the condensing dome and draws outside air into a space around the main shell of the condensing dome. A tank is connected to the condensing dome via a pipe and receives desalinated liquid from the condensing dome.

Abstract: A desalination system includes a vertical column with a lower end submerged into a body of liquid to be treated. The column has a dark-colored outer surface able to absorb electromagnetic energy, and at least one vacuum compressor is connected to provide a vacuum pressure in the vertical column such that the liquid is drawn into the vertical column through openings in the vertical column. A condensing dome has a main shell and that receives vapor of the liquid in the vertical column via a vapor port joining the vertical column and the condensing dome. A wind-driven outer turbine surrounds the main shell of the condensing dome and draws outside air into a space around the main shell of the condensing dome. A tank is connected to the condensing dome via a pipe and receives desalinated liquid from the condensing dome.

Abstract: An apparatus includes a multidirectional positioning system, a scanner, a filling head and a scrubbing head. The scanner scans the volume of a three-dimensional road damage, and the scanner is attached to the multidirectional positioning system. The scrubbing head prepares the surface of the three-dimensional road damage, and the scrubbing head is affixed to the multidirectional positioning system. A processor receives volume data of the three-dimensional road damage and stores the volume data in a data storage memory. The filling head is attached to the multidirectional positioning system, and the filling head is controlled to move with respect to a shape of the three-dimensional road damage based on the volume data stored in the processor so as to fill in the three-dimensional road damage with a filling material.

Abstract: An apparatus including a multidirectional positioning system and a scanner. The scanner scans the volume of a three-dimensional cavity, and the scanner is attached to the multidirectional positioning system. A processor receives volume data of the cavity and stores the volume data in a data storage memory. A material depositing mechanism is attached to the multidirectional positioning system, and the material depositing mechanism is controlled to move with respect to a shape of the cavity based on the volume data stored in the processor so as to fill in the cavity with a filler material.

Abstract: An apparatus includes a multidirectional positioning system, a scanner, a filling head and a scrubbing head. The scanner scans the volume of a three-dimensional road damage, and the scanner is attached to the multidirectional positioning system. The scrubbing head prepares the surface of the three-dimensional road damage, and the scrubbing head is affixed to the multidirectional positioning system. A processor receives volume data of the three-dimensional road damage and stores the volume data in a data storage memory. The filling head is attached to the multidirectional positioning system, and the filling head is controlled to move with respect to a shape of the three-dimensional road damage based on the volume data stored in the processor so as to fill in the three-dimensional road damage with a filling material.

Abstract: An apparatus including a multidirectional positioning system and a scanner. The scanner scans the volume of a three-dimensional cavity, and the scanner is attached to the multidirectional positioning system. A processor receives volume data of the cavity and stores the volume data in a data storage memory. A material depositing mechanism is attached to the multidirectional positioning system, and the material depositing mechanism is controlled to move with respect to a shape of the cavity based on the volume data stored in the processor so as to fill in the cavity with a filler material.