Abstract:
Systems and methods for accommodating gravity based devices within wheel rims. An exemplary method includes identifying a number of the gravity based devices to be contained within the wheel, identifying a type of each of the gravity based devices to be contained within the wheel, identifying, based on the type and the number of the gravity based devices, a location where each of the gravity based devices are to be installed within the wheel (i.e., the air hole locations), and generating holes in the rim, where the number of the holes equals the number of the gravity based devices, and where for each air hole location in the air hole locations a single hole in the holes is generated.
Abstract:
Disclosed herein are systems, methods, and computer-readable storage media for gravity-driven pumps and generators, as well as various supporting concepts, mechanisms, and approaches. As a tire rotates around an axle, the pull of gravity varies for a given point on the tire. While gravity is always pulling ‘down’, the force relative to a fixed point on the tire changes. Gravity-driven generators exploit these changes in gravitational force to do work. A gravity-driven generator is different from an automatic pump that operates using centrifugal force due to rotation of a tire. Automatic, gravity-driven generators can be used to generate and store energy to perform such tasks as inflating tires to offset the natural gas leakage of modern tires, and can maintain tire pressure and inflation within a desired or optimal range. Tire rims can be modified to accommodate these pumps.
Abstract:
Systems, methods, and computer-readable storage media are arranged in connection with gravity-driven pumps configured in tires, as well as various supporting concepts, mechanisms, and approaches. As a tire rotates around an axle, the pull of gravity varies for a given point on the tire. While gravity is always pulling ‘down’, the force relative to a fixed point on the tire changes. Gravity-driven pumps exploit these changes in gravitational force to do work. The work can be driving a pump, or generating electrical power to drive a traditional electric pump or other electrical components. A gravity-driven pump is different from an automatic pump that operates using centrifugal force due to rotation of a tire. Automatic, gravity-driven pumps can be used to inflate tires to offset the natural gas leakage of modern tires, and can maintain tire pressure and inflation within a desired or optimal range.
Abstract:
Disclosed herein are systems, methods, and computer-readable storage media for gravity-driven pumps, gravity-driven power generators that power electric pumps, as well as various supporting concepts, mechanisms, and approaches. As a tire rotates around an axle, the pull of gravity varies for a given point on the tire. While gravity is always pulling ‘down’, the force relative to a fixed point on the tire changes. Gravity-driven pumps exploit these changes in gravitational force to do work. Automatic, gravity-driven pumps can be used to inflate tires to offset the natural gas leakage of modern tires, and can maintain tire pressure and inflation within a desired or optimal range. As different conditions are met, pump parameters are determined which can adjust the pumps. Such conditions include driving patterns, load, and temperature, and resulting adjustments include turning on and off pumps, varying stroke length, and varying the number of strokes required.
Abstract:
Systems and methods for accommodating gravity based devices within wheel rims. An exemplary method includes identifying a number of the gravity based devices to be contained within the wheel, identifying a type of each of the gravity based devices to be contained within the wheel, identifying, based on the type and the number of the gravity based devices, a location where each of the gravity based devices are to be installed within the wheel (i.e., the air hole locations), and generating holes in the rim, where the number of the holes equals the number of the gravity based devices, and where for each air hole location in the air hole locations a single hole in the holes is generated
Abstract:
Disclosed herein are systems, methods, and computer-readable storage media for gravity-driven pumps, as well as various supporting concepts, mechanisms, and approaches. As a tire rotates around an axle, the pull of gravity varies for a given point on the tire. While gravity is always pulling ‘down’, the force relative to a fixed point on the tire changes. Gravity-driven pumps exploit these changes in gravitational force to do work. The work can be driving a pump, or generating electrical power to drive a traditional electric pump or other electrical components. A gravity-driven pump is different from an automatic pump that operates using centrifugal force due to rotation of a tire. Automatic, gravity-driven pumps can be used to inflate tires to offset the natural gas leakage of modern tires, and can maintain tire pressure and inflation within a desired or optimal range.
Abstract:
Disclosed herein are systems, methods, and computer-readable storage media for gravity-driven pumps, gravity-driven power generators that power electric pumps, as well as various supporting concepts, mechanisms, and approaches. As a tire rotates around an axle, the pull of gravity varies for a given point on the tire. While gravity is always pulling ‘down’, the force relative to a fixed point on the tire changes. Gravity-driven pumps exploit these changes in gravitational force to do work. Automatic, gravity-driven pumps can be used to inflate tires to offset the natural gas leakage of modern tires, and can maintain tire pressure and inflation within a desired or optimal range. As different conditions are met, pump parameters are determined which can adjust the pumps. Such conditions include driving patterns, load, and temperature, and resulting adjustments include turning on and off pumps, varying stroke length, and varying the number of strokes required.