Abstract: An artificial gravity heating system includes a cylindrical compartment formed of a hollow cylinder having a bottom base and an open top end. An electric motor rotates the cylindrical compartment to provide centripetal motion of materials inside the cylindrical compartment. While rotating, the materials move towards an inner wall of the cylindrical compartment. A heating element is conductively coupled along an outer wall of the cylindrical compartment for heating the materials against the inner wall via conduction. A temperature sensor is operatively coupled to the cylindrical compartment for monitoring a temperature of the cylindrical compartment. A controller is configured to control operation of the heating element based on the temperature monitored via the temperature sensor. An artificial gravity heating method is used to process materials including heating ingredients to cook food. The artificial gravity heating system may also be configured as a vapor generator dehydrator or a thermal gas generator.

Abstract: A workstation for microgravity environments is provided that prevents objects from floating around inside a spacecraft. The workstation includes a downdraft table that has a plenum chamber with an inlet and an outlet. A fan is disposed in the plenum chamber for drawing air into the plenum via the inlet, and exhausting air from the plenum via the outlet. A metal grate is disposed across the inlet, and an air resistive stack is disposed on an outer side of the metal grate. The air resistive stack includes an inner resistive layer disposed on the metal grate and an outer resistive layer disposed on the inner layer. The workstation improves a user's ability to perform many activities in a microgravity environment.