Propeller

1. A propeller for use with fluids, the propeller provided to propel an object or person or to move the fluid, the propeller comprising:

a plurality of asymmetrical blades;

a rotational axis;

the plurality of blades extending outward from the rotational axis and disposed around the rotational axis;

each blade of the plurality of blades forming a loop and having an intake portion, and exhaust portion and a tip portion extending radially outward from the rotational axis;

the loop of each blade having an intake root and an exhaust root, and a gap between the intake root and the exhaust root;

wherein the propeller has a configuration to generate non-axial lift and non-axial fluid flow and to redirect the non-axial fluid flow to axial fluid flow, wherein the configuration includes:

throughout at least a portion of the tip portion of the blades of the plurality of blades before a 90 degree roll and toward the intake portion of the tip section, a distance (N) to a nose of a cross-section as measured perpendicularly from the rotational axis is greater than a distance (T) to a tail of the cross-section as measured perpendicularly from the rotational axis, wherein the cross-section is taken from a fore location view of the propeller along the rotational axis and perpendicularly to the rotational axis; and

each blade of the plurality of blades further comprising 80% of the tip portion of the blades having a roll value of less than 90 degrees and N>T for the same 80% of the tip portion.

2. The propeller of claim 1 wherein the blades of the plurality of blades are configured so the average non-axial lift is the greatest in the tip portion as compared to either the intake portion or the exhaust portion and the intake portion is 0-45% of the blades of the plurality of blades and the tip portion is 30%-75% of the blades of the plurality of blades.

3. The propeller of claim 1 wherein rake of the blades of the plurality of blades is increasingly negative from the intake root through the first 30 percent to 40 percent of the each blade of the plurality of blades, then increases for the next 10 percent to 15 percent of the blade until it reaches positive values and continues to increase for an additional 20 percent to 40 percent of each blade of the plurality of blades and then levels off for the remainder of each blade of the plurality of blades or decreases.

4. The propeller of claim 1 wherein the average pitch angle of the exhaust portion of the blades of the plurality of blades is greater than the average pitch of the intake portion.

5. The propeller of claim 1 wherein the blades of the plurality of blades have the intake root and the exhaust root, and wherein the value of rake at the intake root position of the blades is less than the value of rake at the exhaust root position resulting in a gap between the intake root and the exhaust root.

6. The propeller of claim 1 wherein a transition from the intake portion to the tip portion occurs when the amount of non-axial lift produced by a given parameter section of each blade of the plurality of blades is greater than the axial lift produced.

7. The propeller of claim 1 wherein the blades of the plurality of blades have the intake root and the exhaust root, and wherein rake values of the blades of the plurality of blades decrease from the intake root and in the intake portion of the blades of the plurality of blades and increase in the exhaust portion of the blades.

8. A device having the propeller according to claim 1 from the group consisting of jet engines, propulsors, shrouded propellers, encased propellers, impellers, aircraft, watercraft, turbines, including wind turbines, cooling devices, heating devices, automobile engines, unmanned aerial vehicles, turbofans (hydrojets), air circulation devices, compressors, and pump jets.