Rotary Motor Triangular Cavities Planetary Piston

The motor divides the rotational path into multiple sectors with pistons operating at different phases. Each piston operates independently in its own chamber, allowing continuous energy transfer without the need for a single piston to reverse direction. The segmentation of the crank mechanism into multiple offset cranks, each driving separate pistons, eliminates the energy loss associated with direction reversal.

The motor employs periodic action by having multiple pistons operate in a cyclic sequence with phase differences. As one piston completes its power stroke, another is beginning its power stroke, creating a continuous periodic energy transfer to the crankshaft. This periodic overlapping of power strokes ensures smooth rotational motion without energy loss from direction changes.

The motor segments the rotation path into multiple active zones, each containing pistons that perform work. Instead of a single eccentric rotor with seal lamellas, multiple pistons are distributed around the circumference, each utilizing a portion of the pressure wave. This segmentation ensures that the entire rotation path contributes to energy transfer, maximizing productivity while reducing media consumption.

The motor achieves continuity of useful action by overlapping the power strokes of multiple pistons. As compressible media expands in one chamber, it simultaneously drives other pistons in different phases. This continuous overlapping ensures that useful work is performed throughout the entire rotation cycle, eliminating dead zones and maximizing the utilization of the compressible media's energy.

The motor segments the sealing requirements into multiple smaller, localized areas around the piston chambers rather than requiring large sealed areas for variable work spaces. Each piston chamber is independently sealed, allowing for more compact and lighter construction while maintaining effective energy transfer capability.

The motor merges multiple piston chambers and crank mechanisms into a single integrated unit sharing common structural elements such as the cylinder block and crankshaft. This consolidation reduces the total weight compared to separate rotor systems while maintaining the ability to transfer energy effectively through the combined action of multiple pistons.

The motor merges multiple eccentric crank mechanisms into a single integrated crankshaft structure with offset journals. Instead of separate eccentric pegs and cogs for each piston, the design combines them into one unified rotating component where each crank journal corresponds to one piston. This merging maintains full utilization of the rotation path for energy transfer while dramatically reducing structural complexity and the number of moving parts.

The crankshaft serves multiple functions simultaneously: it converts the reciprocating motion of all pistons into rotational motion, provides the necessary eccentricity for each piston's phase difference, and transmits power to the output. This multi-functionality eliminates the need for separate eccentric pegs and control cogs, simplifying the overall structure while maintaining effective energy transfer throughout the rotation path.